In recent years, with the rapid popularity of new energy vehicles, energy storage systems, and smart devices, the demand for lithium batteries has experienced explosive growth. その間, a large number of retired batteries are entering the recycling process. The decade from 2020 に 2030 will be a key period for lithium battery recycling technology from the beginning to maturity.

What role will recycled materials play in the global supply chain by 2030?

By 2030, the cumulative volume of retired lithium batteries worldwide will exceed 12 百万トン, several times the amount in 2020.

Lithium Recycling Share

Lithium Recycling Share

Nickel Recycling Rate

Nickel Recycling Rate

Cobalt Recovery Share

Cobalt Recovery Share

Currently, global lithium resources primarily rely on mining ore and salt lakes, but these sources are concentrated and costly. By 2030, recycled lithium will account for 15%–20% of global supply. YUSHUNXIN’s high-purity sorting and fine grinding equipment can increase the lithium recovery rate in black powder by approximately 10%.

The widespread adoption of high-nickel ternary materials has driven rapid growth in nickel demand. By 2030, recycled nickel will meet 25%–30% of demand. We introduce automatic grading systems into lithium battery recycling solutions, which effectively reduce metal contamination and enhance the purity of nickel and cobalt separation.

Most cobalt deposits occur in a limited number of regions, posing high supply risks. By 2030, recycled cobalt is projected to account for 35%–40% of the battery industry’s demand. YUSHUNXIN hydrometallurgical equipment achieves cobalt recovery rates exceeding 95% through optimal leaching and extraction processes.

How Will Lithium Battery Recycling Technology Evolve from 2020 に 2030?

Lithium battery recycling technology primarily follows three approaches: mechanical recycling, pyrolytic treatment, and hydrometallurgy.

Mechanical Recycling for lithium battery

 

Prior to 2020, mechanical recycling primarily relied on manual dismantling and basic crushing. Traditional manual disassembly is not only inefficient but also carries risks of short circuits and leakage.

Since entering 2020, 優春新 has launched electronic waste shredder. YUSHUNXIN introduced an intelligent disassembly system that completes automatic shell removal, electrolyte extraction, and graded crushing processes. Electronic waste shredder incorporates a low-temperature crushing system and inert gas protection system to prevent thermal runaway and the volatilization of organic gases.

Pyrolysis Treatment for Batteries

 

Manufacturers began widely adopting pyrolysis technology around 2020 to remove electrolyte and organic binders, but it requires high energy and complex emissions treatment.

しかし, our low-temperature pyrolysis furnace employs an inert gas circulation system that enables efficient decomposition of organic matter below 500°C, with a 30% reduction in energy consumption from traditional equipment. More importantly, this lithium battery recycling technology is equipped with exhaust gas purification and recovery modules, which provides assurance for enterprises to reduce carbon emissions and environmental risks.

Hydrometallurgy for waste lithium battery recycling

 

Hydrometallurgy represents the most efficient technological approach for metal recovery, and the key lies in precisely controlling the leaching, 分離, and purification processes.

YUSHUNXIN hydrometallurgical equipment employs a multi-stage reactor design. 加えて, it combines acid addition with temperature control systems to automatically adjust leaching parameters according to different battery materials. Through selective extraction and electrowinning technologies, the recovery rates for lithium, ニッケル, and cobalt can reach over 95%, 98%, そして 96%, respectively.

Can different types of batteries have the same recycling process?

There are numerous types of lithium batteries, such as ternary (NCM/NCA), lithium iron phosphate (LFP), lithium manganese oxide, and lithium titanate. Different battery systems have distinct requirements for recycling processes.

Ternary batteries contain a higher proportion of nickel, コバルト, and manganese, which have the highest recycling value. Lithium recycling plant commonly apply a mechanical–pyrolysis–hydrometallurgical process to efficiently extract nickel, コバルト, manganese, and lithium salts. It can also automatically adjust the wet leaching formula based on the proportions of ternary materials, realizing efficient separation and purification.

Due to the absence of precious metals like cobalt and nickel, their metal value is relatively low. しかし, given their vast quantities, recycling is significant for material reuse. の EVバッテリーリサイクルプロジェクトソリューション enable efficient separation, which allows the direct reprocessing of cathode powder and conductive agents into raw materials for iron phosphate. The equipment features a simple structure and low energy consumption, which is suitable for the large-scale processing of retired LFP batteries.

These batteries feature stable structures but lower metal value, and traditional hydrometallurgical recycling processes have long investment payback periods. For this category of batteries, we offer a pyrolysis-sorting recycling solution. By optimizing the pyrolysis atmosphere and powder classification, we can efficiently extract manganese salts or titanium-based materials for use in the chemical or ceramics industries.

different types of batteries

In the 2025 time point, the lithium battery recycling technology is transitioning from its exploratory phase to a critical stage of intelligent development. The accumulated experience over the past five years has gradually clarified the technological approach. それに応じて, the synergistic application of mechanical recycling, pyrolysis treatment, and hydrometallurgy has become a trend in development. As a professional manufacturer of lithium battery recycling equipment, we can also provide you with other lithium battery recycling solutions. Such as 使用済みEVバッテリーのグリーンリサイクルソリューション そして lithium battery disposal in France. Welcome to contact us!

カタログに基づいたエンジニアリングベース

Technology and interface planning

Compare pretreatment, conditioning and separation architectures using current material evidence, not universal performance claims.

01

入荷素材

Battery evolution, chemistry share, cell-to-pack architecture and receiver requirements.

02

期待される出力

Route-specific fractions and evidence plan.

03

プロジェクトインターフェース

Safety case, process control, 排出量, residue, utilities and downstream qualification.

モデルとスコープのレジスタ

選択したプロセス境界に一致する行のみを使用します.

カタログ参照容量力物理的エンベロープ含まれる境界
YSX public familyPublic equipment family500–1,000 kg/h102–238 kW20–35 m line; 7.5–19.5 tStandard equipment-family envelope; no per-model allocation
YSX-LR500LR complete line500 kg/h320 kW40 × 15 × 7.5 メートルConditioning, separation and gas-treatment line
YSX-LR1000LR complete line1,000 kg/h410 kW45 × 17 × 7.5 メートルConditioning, separation and gas-treatment line
Project reference - 500Earlier integrated layout500 kg/h300 kW60 × 7 × 7 メートルEarlier layout without a published model label
Project reference - 1000Earlier integrated layout1,000 kg/h349 kW80 × 7 × 7 メートルEarlier layout without a published model label

設定ルール: カタログ容量は計画の参考値です. 安定したスループット, 設置/動作電力, フットプリント, 回復, 純度, 排出量と公共需要には承認された機器リストが必要です, 代表的な資料と書面による受入条件.

設定やお見積りの前に必要な情報

  1. 代表的な資料写真, 仕様と入手可能なサンプル.
  2. 必要なキャパシティにシフトごとの時間数を加えたもの, 1日のシフトと稼働日.
  3. 目標出力, サンプリング方法と下流の受信機の要件.
  4. 拠点の国, 利用可能な電力, 燃料, 水, 圧縮空気と建物の制限.
  5. 地域環境, 火, 保管および労働安全要件.
  6. 要求された配送境界: 装置, レイアウト, インストール, 試運転とトレーニング.