WHAT İS ANTİMON
A CRİTİCAL MİNERAL
OF MİLİTARY İMPORTANCE
Antimony (Sb), a metalloid with atomic number 51, has been known for its various applications since ancient times. Traditionally used in cosmetics, medicine, and metallurgy, its role in modern industry and military applications has significantly increased. Due to its strategic importance, antimony is currently considered a critical mineral by many countries.

WHY IS ANTIMONY CRITICAL?
The importance of antimony in the modern world is undeniable. It is classified as an indispensable mineral in various industrial and military applications, and there are concerns about supply chain security.
The main reasons for its critical status are as follows:
INDUSTRİAL USE
Antimony is critical in the production of flame retardants alloys and semiconductors
DEFENSE APPLİCATİONS
Its role in military technologies such as munitions and electronic devices is critically important
SUPPLY RİSK
Global antimony supply is concentrated in a few countries but Turkey is a leading player in antimony mining
COUNTRİES THAT LİST
ANTİMONY AS A CRİTİCAL MİNERAL
Antimony, as a critical mineral reflecting its strategic importance, has been recognized by many countries:
United States: The U.S. Geological Survey (USGS) included antimony in the list of critical minerals due to its significant role in defense and industrial applications.
European Union: The EU listed antimony as a critical raw material, acknowledging its importance for economic security and technological advancement.
Japan: Japan sees antimony as a critical mineral, particularly for its role in the electronics industry.
Australia: Aware of the need for secure supply chains, Australia has also listed antimony as a critical mineral.
China, which produces 48% of the world's antimony, is seeing a decline in its reserves and production. Recent export restrictions aimed at national security are further tightening global supply, exacerbating the long-term scarcity of this essential resource.
ANTİMONY AND ITS APPLİCATİONS
The role of antimony in military applications is multifaceted and important. Some key areas where antimony is indispensable include:
AMMUNİTİON PRODUCTİON
Antimony is used to harden the lead in bullets and other projectiles enhancing their performance and durability
ARMOR PİERCİNG ROUNDS
Adding antimony to alloys increases the penetration capability of armorpiercing rounds making them more effective against reinforced targets
MİLİTARY ELECTRONİCS
Antimony based semiconductors are critical for the production of infrared detectors diodes and other electronic components used in military equipment
FLAME RETARDANTS
Antimony trioxide is a key component of flame retardants used in military uniforms equipment and vehicles providing essential protection in combat situations
BATTERY TECHNOLOGY
Lead antimony alloys are used in batteries that power various military equipment and vehicles ensuring reliable performance under harsh conditions
SOLAR PANELS
Antimony emerges as a key material in solar energy technologies enhancing efficiency improving thermal stability and advancing energy storage solutions
FREQUENTLY ASKED QUESTIONS
ANTİMONY İN WARFARE
HİSTORY
The use of antimony in military applications has a long history dating back to ancient times:
Ancient Weapons: Historical records show that antimony was used in weapon and tool alloys as far back as the Bronze Age.
Medieval Wars: In the Middle Ages, antimony was used in the production of type metal for printing presses and in certain medical preparations for soldiers.
World War I: Antimony’s vital role in strengthening ammunition, improving military equipment, and supporting communications technology highlighted its importance as a key material in the global conflict.
World War II: Antimony’s role expanded significantly during World War II, particularly in the production of lead-based alloys for bullets and other munitions.
STRATEGİC IMPORTANCE
İN MODERN DEFENSE
Supply Chain Security: Ensuring a stable supply of antimony is vital for defense contractors and military manufacturers to prevent disruptions in production.
Technological Superiority: Advanced military technologies, including radar systems, night vision devices, and precision-guided munitions, rely on components that contain antimony.
Geopolitical Concerns: Countries like China dominate antimony production and export, raising concerns about potential supply restrictions or economic leverage during times of conflict.
THE SİLENT GUARDİAN
OF NUCLEAR SECURİTY
The use of antimony in military applications has a long history dating back to ancient times:
Neutron Absorption Proficiency – Antimony’s excellent neutron-absorbing properties are important for controlling nuclear reactions and maintaining reactor stability.
Enhancing Radiation Shielding – Antimony, used in lead-based shielding materials, increases the effectiveness of radiation protection, safeguarding both workers and the environment.
Reliable Energy Storage – Employed as an alloying element in lead-acid batteries, antimony provides a dependable backup power source that is vital for the uninterrupted operation of nuclear facilities.
THE HİDDEN HERO POWERİNG
SOLAR ENERGY INNOVATİON
Antimony emerges as a key material in solar energy technologies, enhancing efficiency, improving thermal stability, and advancing energy storage solutions. Its unique properties help shape the future of clean energy.
Enhancing Solar Cell Efficiency: Antimony strengthens perovskite solar cells by improving light absorption and charge transport, thereby achieving higher energy conversion rates. This makes solar panels more efficient in capturing sunlight and converting it into usable energy.
Improving Thermal Stability: Antimony compounds enhance the thermal stability of solar cells, enabling them to withstand high temperatures. As a result, solar panels can operate effectively in harsh environments, reducing the need for frequent replacements.
Advancing Energy Storage: Antimony plays a crucial role in the development of liquid metal batteries, which are essential for solar energy storage. These batteries offer a more efficient and durable solution for capturing excess solar energy, making renewable energy storage more reliable.