Market and product

Phosphate has long been regarded as a key input for agriculture, but the rapid rise of lithium iron phosphate (LFP) batteries in electric vehicles is turning it into the focal point of competition between global food security and the energy transition.

Material Characteristics and Sources

Phosphorus is a non-metal element primarily extracted from phosphate rock, which exists in three main forms: sedimentary (over 75% of reserves), magmatic (15–20%), and biological (around 2–3%). Phosphate rock is usually mined as a primary product, but it can also occur as a byproduct of rare earth element (REE) or uranium mining.

Global phosphorus recycling rates remain below 20%, mainly recovered from agricultural runoff, municipal sludge, and industrial waste streams. Regional disparities are significant, depending on wastewater management systems. Some EU countries are introducing regulations mandating phosphate recovery from wastewater, while long-term prospects also include recycling from end-of-life LFP batteries.

Dual Demand Surge: Agriculture and EV Batteries

Agriculture currently accounts for 95% of global phosphate demand, with around 85% used in fertilizer production and 10% in animal feed and food additives. Phosphorus is an essential, irreplaceable nutrient in agriculture, playing a critical role in root development, energy transfer, and seed formation. Demand for phosphate fertilizers is projected to grow at 2–6% annually over the next decade, depending on the scenario.

Meanwhile, industrial applications—though representing only about 5% of current demand—are growing much faster. The widespread adoption of LFP batteries in electric vehicles is the main driver: LFP’s market share has risen from 10% in 2020 to 40% in 2025. These batteries use iron and phosphate instead of nickel and cobalt, reducing costs by 20–30% compared to NMC batteries while offering a lower carbon footprint.

The LFP market is projected to grow at a CAGR of 25.6%, from $15.3 billion in 2023 to $124.4 billion by 2032. By 2030, phosphate demand for batteries could exceed 3.8 million tons per year.

This growing competition between agricultural and energy uses has led to what is increasingly described as the “food vs. battery” dilemma, forcing policymakers to make difficult decisions in allocating finite phosphate resources.

Africa Holds the Reserves, China Controls Production

A striking paradox defines the phosphate market: Africa holds about 80% of global reserves but contributes only 20% of production. China dominates output, producing over 31.6 million tons annually—about 44% of global supply.

In processing, China controls approximately 75% of global battery-grade purified phosphoric acid production and nearly monopolizes large-scale LFP battery manufacturing, despite tariffs imposed by the United States on Chinese-made LFP batteries since April 2025.

Within Africa, Morocco plays a dominant role. Its state-owned OCP Group controls around 30% of global phosphate rock production and 45% of global fertilizer exports, accounting for 66% of Africa’s phosphate output. Market concentration is extremely high, and projections suggest Morocco could control over 40% of global phosphate rock production by 2050.
Morocco’s position has been further strengthened following China’s reimposition of export restrictions on phosphate fertilizers in 2024. As Europe seeks to reduce dependence on Russian phosphate, Morocco has become the primary alternative supplier, although Norway is developing magmatic phosphate resources to support its battery supply chain.

Price Volatility: Two Historic Surges

Phosphate rock prices are influenced by both agricultural and energy markets. In 2008, prices surged due to China’s export restrictions, India’s fertilizer subsidies, and pricing policy changes by Morocco’s OCP.

A second surge occurred in 2022, driven by the Russia–Ukraine war’s impact on natural gas prices, COVID-19 disruptions in China, and rising demand from LFP battery production. The 2022 fertilizer crisis saw prices increase by over 300%, highlighting the risks of supply concentration.

African Phosphate Trade and Value Chains

As of 2022, around 40% of Africa’s phosphate production was used directly or processed into fertilizers, with one-quarter consumed domestically and three-quarters exported.
There is clear value chain divergence: Egypt, Morocco, and Tunisia generate most export revenue from processed phosphate chemicals and finished fertilizers, while countries like South Africa and Togo primarily export raw phosphate rock.

Morocco’s vertically integrated model—from mining to fertilizer production, chemical processing, and global distribution—underpins its strong competitiveness and global leadership.

Market Risks and Strategic Leverage Points

Phosphate demand faces mixed impacts from the energy transition. On one hand, LFP batteries create new market opportunities; on the other, the shift toward organic and low-carbon agriculture may reduce demand for synthetic fertilizers.

At the same time, the global phosphate market risks oversupply as Saudi Arabia and Australia expand capacity, alongside new projects in Senegal and Ghana.

Environmental risks are also significant. Phosphate mining and processing involve heavy metal pollution, acid mine drainage, and the generation of around 150 million tons of hazardous waste annually, along with high energy and water consumption.

Strategic Recommendations

The African Development Bank and the Intergovernmental Forum on Mining (IGF) highlight several priorities for phosphate-rich countries:

• Develop vertically integrated value chains, following Morocco’s model 
• Position phosphate within the battery value chain, especially for countries with suitable resources 
• Invest in low-carbon fertilizer technologies to meet future carbon regulations such as the EU’s Carbon Border Adjustment Mechanism (CBAM) 
• Ensure domestic food security by maintaining sufficient phosphate supply for fertilizer use 

In the long term, phosphate is no longer just an agricultural input—it is becoming a strategic resource at the intersection of food systems and clean energy, with profound implications for global supply chains and policy decisions.