What if an old laptop sitting in a cupboard was not actually waste? What if an outdated smartphone, server, circuit board, or telecom device contained materials that India needs for its next generation of electronics, electric vehicles, batteries, and clean-energy technologies?

This is where critical mineral recovery from e-waste becomes important.

For years, e-waste has mainly been discussed as an environmental problem. We talk about overflowing landfills, unsafe disposal, toxic substances and the need for responsible e-waste recycling. But there is another side to the story.

E-waste is also a resource.

Old electronic products contain valuable metals and materials that can potentially be recovered and returned to the economy. This concept is often called urban mining—recovering useful resources from products that are already circulating in cities instead of relying only on newly mined resources. And India is increasingly recognising this opportunity.

What Are Critical Minerals?

Critical minerals are minerals that are extremely important for modern industries but may face supply risks because their production, processing, or availability is concentrated in certain regions.

India identified 30 critical minerals in 2023. The list includes materials such as lithium, cobalt, nickel, copper, graphite, rare earth elements, gallium, germanium, tantalum, tin, tungsten, and others.

Why are these minerals important?

Because they are used in many technologies that are becoming a bigger part of everyday life. They support industries such as:

• Electric vehicles
• Batteries and energy storage
• Smartphones and computers
• Semiconductors
• Telecommunications
• Renewable energy
• Defence and aerospace
• Advanced manufacturing

The challenge is that demand for many of these materials is increasing while supply chains can be vulnerable to geopolitical disruptions, limited production and concentrated processing capacity.

This makes recycling increasingly important.

Why Is E-Waste Important for Critical Mineral Recovery?

Think about a smartphone.

It may contain copper, cobalt, lithium and other valuable materials in different components. Now think about a laptop. Then a server. Then thousands of computers, networking devices, telecom equipment, circuit boards and other electronics reaching the end of their useful lives.

Individually, each product may contain only a small quantity of a particular material. But when millions of products are collected together, the resource potential becomes significant. This is the basic idea behind urban mining.

Instead of asking:

“How do we dispose of this old electronic equipment?”

we can also ask:

“What useful resources are still inside it?”

The International Energy Agency has highlighted the significant untapped potential for recovering metals from e-waste. It estimates that metals contained in e-waste generated in 2022 were worth around USD 90 billion, while only around USD 28 billion was recovered and turned into valuable materials.

That gap represents a huge opportunity.

India Is Moving from Mining to Recycling

This is where the recent policy developments in India become particularly interesting. As highlighted in CirQula India’s LinkedIn post, India is increasingly looking beyond traditional mining and towards materials that have already entered the economy.

In January 2025, the Government of India approved the National Critical Mineral Mission (NCMM).

The mission covers the critical mineral value chain, including exploration, mining, processing and recovery from end-of-life products. The government announced an overall framework involving ₹16,300 crore of government expenditure and expected investments of ₹18,000 crore from PSUs and other stakeholders, amounting to a total outlay of ₹34,300 crore over seven years.

The message is clear:

Critical mineral security is no longer only about finding new mines. It is also about recovering materials that we have already mined and used.

India’s ₹1,500 Crore Critical Mineral Recycling Scheme

One of the biggest developments is the Incentive Scheme for Promotion of Critical Mineral Recycling. The Union Cabinet approved a ₹1,500 crore incentive scheme in September 2025. The scheme supports the development of domestic capacity for recovering and producing critical minerals from secondary sources. Eligible feedstock includes e-waste, spent lithium-ion batteries and other scrap.

This is an important change in thinking. The goal is not simply:

Collect – Dismantle – Dispose

It is increasingly becoming:

Collect – Sort  Process – Recover – Reuse the Resources

That is the foundation of a circular economy.

58 Companies and a New Recycling Ecosystem

The policy is already attracting industry participation.

In April 2026, the Ministry of Mines announced that 58 companies had been found eligible under the critical mineral recycling scheme.

Together, these companies had pledged approximately:

• 850 KTPA of recycling capacity
• ₹5,000 crore in investment
• Focus across battery recycling, e-waste processing and other waste-recovery activities.

This is an important signal for India’s recycling industry.

It shows that critical mineral recovery is moving beyond an idea discussed in research papers and policy documents.

It is becoming an emerging industrial opportunity.

What Critical Minerals Can Be Recovered from E-Waste?

Not every electronic product contains every critical mineral, and recovery depends heavily on the type of equipment, its composition, and the technology used.

Some important materials associated with electronics and battery waste include:

1. Copper

Copper is widely used in electrical wiring, circuit boards, connectors, and electronic components. It is also important for power infrastructure, electric vehicles and renewable-energy systems.

Recovering copper from e-waste helps reduce the need for additional primary extraction.

2. Cobalt

Cobalt is associated particularly with certain lithium-ion battery chemistries and is important in battery supply chains.

Recovering cobalt from spent batteries can help retain this valuable material within the supply chain.

3. Lithium

Lithium is a major material in rechargeable lithium-ion batteries used in smartphones, laptops, energy-storage systems and electric vehicles.

As battery use expands, lithium battery recycling becomes increasingly important.

4. Nickel

Nickel is used in several battery chemistries and industrial applications.

Efficient recovery of nickel from suitable waste streams can provide an additional source of material.

5. Rare Earth Elements

Certain electronic components and permanent magnets use rare earth elements such as neodymium, praseodymium, dysprosium and terbium.

Recovering these materials can be technically challenging, but they have significant strategic importance.

6. Other Valuable Materials

E-waste can also contain materials such as gold, silver, palladium, aluminium, tin and other metals.

These may not all be classified as “critical minerals” under India’s list, but their recovery adds considerable value to responsible electronic waste recycling.

How Does Critical Mineral Recovery from E-Waste Work?

Critical mineral recovery is much more than simply breaking apart an old computer. A professional recycling process generally involves several stages.

Step 1: Collection

Old electronics must first enter a formal collection system.

This could include:

• Computers
• Laptops
• Mobile phones
• Servers
• Telecom equipment
• Circuit boards
• Consumer electronics
• Electrical equipment
• Other electronic waste

Good collection is the foundation of the entire recycling chain.

If e-waste never reaches an authorised recycling system, valuable materials can be lost.

Step 2: Sorting and Segregation

Different types of electronic waste contain different materials. Therefore, recyclers need to identify and separate waste streams before further processing.

This makes recovery more efficient and helps ensure that hazardous components are handled properly.

Step 3: Dismantling

Electronic products are dismantled to separate components such as:

• Printed circuit boards
• Batteries
• Wires
• Metals
• Plastics
• Screens
• Other components

The objective is to create more manageable material streams.

Step 4: Mechanical Processing

Some materials can be separated using processes such as shredding, crushing, screening, and physical separation. These processes help concentrate valuable materials before further treatment.

Step 5: Metallurgical Recovery

This is where the process becomes more advanced.

Depending on the material, recyclers may use combinations of pyrometallurgical, hydrometallurgical, or other specialised processes to recover metals and minerals. UNEP’s technical work on WEEE recovery identifies a wide range of commercially available and near-commercial technologies for material recovery from e-waste, including collection, dismantling, separation and subsequent resource recovery.

The exact technology depends on the waste stream and the material being recovered.

Why Is This Called “Urban Mining”?

Traditional mining extracts minerals from the earth. Urban mining takes a different approach.

Instead of digging deeper into the ground, we recover valuable materials from products already present in our cities.

Imagine a city containing millions of:

phones + laptops + servers + circuit boards + batteries + appliances

Together, these products form a kind of above-ground resource stock. When they reach the end of their useful lives, responsible recycling can bring some of those materials back into productive use.

That is why e-waste recycling is increasingly being connected with resource security.

Why Critical Mineral Recovery Matters for India

India is rapidly expanding its digital infrastructure, electronics manufacturing, electric mobility and renewable-energy capacity. All of these sectors depend on reliable access to materials. Recycling cannot replace mining completely.

However, it can provide an additional source of supply.

The IEA says that scaling up recycling could significantly reduce the need for new mining. In its analysis, recycling could reduce new mine development requirements by 25–40% by 2050, depending on the mineral and scenario.

This makes recycling strategically important for several reasons.

1. Reducing Import Dependence – Recovering materials domestically can reduce dependence on imported raw materials.

2. Improving Resource Security– A country that can recover valuable materials from its own waste has another source of supply.

3. Supporting the Clean-Energy Transition- Batteries, EVs, renewable-energy systems, and other clean technologies require significant quantities of minerals.

4. Reducing Mining Pressure– Recycling can reduce some of the demand for new extraction and the associated environmental impacts.

5. Building a Circular Economy– Materials can remain in productive use for longer instead of being discarded after a single product lifecycle.

The E-Waste Problem Is Growing Too

The opportunity is significant because the amount of e-waste is also increasing rapidly.

According to the Global E-waste Monitor 2024, the world generated around 62 billion kg of e-waste in 2022. Only 22.3% was documented as formally collected and recycled. That means a huge amount of electronic material is still outside formal recycling systems.

India is facing the same broader challenge.

CPCB data reported by the Government of India shows that India generated approximately 12.54 lakh metric tonnes of e-waste in FY 2023–24 and approximately 13.98 lakh metric tonnes in FY 2024–25. The percentage of e-waste collected, dismantled, and recycled/disposed was reported at 61.94% and 70.71%, respectively.

As electronic consumption grows, the question becomes increasingly important: Can we turn this growing waste stream into a reliable resource stream?

Critical Mineral Recovery Is Not Just About Batteries

When people hear “critical mineral recycling,” they often immediately think about EV batteries. Batteries are certainly important. But e-waste also deserves significant attention.

Old:

• Smartphones
• Computers
• Laptops
• Servers
• Telecom equipment
• Circuit boards
• Networking equipment
• Consumer electronics

can contain valuable materials that can potentially be recovered through appropriate recycling processes. This is why e-waste recycling and critical mineral recovery should be viewed as connected parts of the circular economy.

What Are the Challenges?

Critical mineral recovery sounds promising, but it is not simple.

• Collection Is Still a Major Challenge– A large quantity of old electronics remains stored in homes, offices, and warehouses instead of entering formal recycling channels.
• Electronics Are Complex– Modern electronics contain many materials packed into small components. Separating them efficiently requires specialised technology.
• Recovery Can Be Expensive– Recovering some critical minerals requires advanced processes, infrastructure, and skilled operations.
• Technology Needs to Improve– Some materials are present in very small quantities, making recovery technically difficult or economically challenging.
• Product Design Matters– Products that are glued, mixed-material, or difficult to dismantle can make recycling harder.

This is why the future of recycling is not only about better recycling plants. It is also about better product design, better collection systems, responsible consumption, and stronger recycling infrastructure.

What This Means for Businesses

For businesses, responsible e-waste management is becoming more than a compliance activity.

Old IT equipment can contain:

• Valuable metals
• Recoverable components
• Sensitive business data
• Hazardous substances
• Materials that can re-enter the manufacturing cycle

Therefore, businesses should have a clear process for end-of-life electronics.

A responsible approach can include:

1. Creating an inventory of old electronic equipment.
2. Separating reusable equipment from waste.
3. Securely handling data-bearing devices.
4. Sending e-waste through appropriate formal channels.
5. Maintaining recycling documentation.
6. Working with authorised and compliant recycling partners.
7. Understanding applicable EPR requirements.

India’s E-Waste Management Rules provide a regulatory framework covering areas such as collection, recycling and extended producer responsibility.

The Role of CirQula India

At CirQula India, we believe the future of waste management is about more than simply moving waste from one place to another.

It is about recovering value. An old laptop should not automatically be viewed as useless. A discarded server is not simply scrap. A circuit board is not merely waste. A spent electronic device can contain materials that still have economic and industrial value. The larger goal is to create a responsible ecosystem where electronic waste is collected, processed, and directed towards appropriate recovery and recycling pathways.

This is the thinking behind the circular economy:

Waste – Resource – Recovery – Reuse – New Value

As India strengthens its critical mineral ecosystem, responsible e-waste recycling can become an important part of this transition.

What Does the Future Look Like?

The next phase of e-waste recycling could be very different from the traditional idea of waste disposal.

We are likely to see greater focus on:

• Advanced material recovery
• Automated sorting
• Better battery recycling
• Recovery of rare earth elements
• Urban mining
• AI-assisted sorting and dismantling
• Better product design
• Stronger EPR implementation
• Domestic critical mineral supply chains
• Greater investment in recycling infrastructure

The IEA has already highlighted recycling as an important part of future critical-mineral supply security.

And India’s policy direction shows that the country is beginning to build the infrastructure needed to capture this opportunity.

From Waste Management to Resource Management

Perhaps the biggest change is not technological. It is a change in mindset.

For decades, we have asked:

“Where should this waste go?”

The circular economy asks a better question:

“What resources are still inside this waste?”

That question changes everything.

India’s critical mineral recycling initiatives show that old products can become part of a new resource strategy. With the right collection systems, responsible e-waste recycling, advanced recovery technologies, and industry participation, discarded electronics can contribute to a more secure and circular material economy.

The next generation of mining may not always require digging deeper.

Sometimes, it may simply require looking at what we have already extracted—and recovering its value.

For CirQula India, that is the future of responsible e-waste management.

Waste management is evolving into resource management.

And India’s urban mines are only beginning to be explored.

Frequently Asked Questions

1. What is critical mineral recovery from e-waste?

Critical mineral recovery from e-waste is the process of extracting valuable critical minerals and other materials from discarded electronic products. These materials can potentially be returned to manufacturing and other industrial supply chains.

2. Which critical minerals can be recovered from e-waste?

Depending on the type of e-waste and recycling technology, materials such as cobalt, copper, nickel, lithium and certain rare earth elements may be recovered. Other valuable metals such as gold, silver and palladium can also be recovered from suitable electronic waste streams.

3. What is urban mining?

Urban mining means recovering valuable materials from products and waste already present in cities instead of relying only on traditional mining. E-waste recycling is an important example of urban mining.

4. Why is critical mineral recycling important for India?

India depends on global supply chains for several important minerals. Recycling can provide an additional domestic source of materials, reduce resource losses, support manufacturing, and strengthen supply-chain resilience.

5. Is e-waste the same as critical mineral waste?

No. E-waste is a broad category that includes discarded electrical and electronic equipment. Some e-waste contains critical minerals, while other materials found in e-waste may be valuable but are not classified as critical minerals.

6. Can lithium be recovered from electronic waste?

Yes, lithium can potentially be recovered from suitable lithium-ion battery waste using specialised recycling processes. However, recovery depends on the battery type, composition, technology and economics of the recycling process.

7. Is critical mineral recovery the same as e-waste recycling?

They are closely connected but not the same. E-waste recycling covers the broader process of collecting, dismantling, processing and recycling electronic waste. Critical mineral recovery focuses specifically on recovering strategically important minerals and materials from suitable waste streams.

8. What is India’s Critical Mineral Recycling Scheme?

India’s Incentive Scheme for Promotion of Critical Mineral Recycling is a ₹1,500 crore initiative under the National Critical Mineral Mission. It aims to build domestic recycling capacity for critical minerals from secondary sources, including e-waste and spent lithium-ion batteries.

9. How many companies have been approved under India’s critical mineral recycling scheme?

As of April 2026, 58 companies had been approved as eligible under the scheme. Together, they pledged approximately 850 KTPA of capacity and around ₹5,000 crore in investment.

10. How can businesses contribute to critical mineral recovery?

Businesses can contribute by ensuring that obsolete electronics, IT equipment, batteries and other electronic waste are channelled through responsible recycling systems instead of being dumped, stored indefinitely or handled through unsafe informal processes.

Final Takeaway

Your old electronics could be more valuable than you think. As India works towards stronger critical mineral security, e-waste can become an important secondary resource.

Responsible e-waste recycling, battery recycling, and critical mineral recovery can help keep valuable materials in circulation while reducing waste and supporting a more resilient circular economy. The future is not simply about producing more resources.

It is about recovering the resources we already have.