Market Overview
Electronic
Waste Mining Market is expected to grow from USD 2.8 billion in 2023 to USD 7.4
billion by 2033, at a CAGR of 15.1%. In terms of volume, electronic waste
mining recorded a total quantity of around 21.5 million tons in 2020 and 22.8
million tons in 2022, an increase by 32% in just two years.
Below Figure Depicts The Overall Volume Of Electronic Waste Mined And Metals Recovered From It 2013 To 2022
Source: We Market Research
One
prominent trend is the increasing focus on the circular economy. Governments,
businesses, and consumers are recognizing the need to reduce waste and maximize
the reuse of materials. Electronic waste mining aligns with this trend by
extracting valuable resources from discarded electronics, contributing to a
more sustainable and resource-efficient ecosystem for electronic waste mining
market
Advances
in recycling and recovery technologies are revolutionizing the electronic waste
mining industry. Automation, robotics, artificial intelligence, and IoT
integration are improving efficiency, reducing costs, and enhancing the
recovery of precious and base metals from e-waste. Electronic waste mining is
expanding beyond traditional markets. Emerging economies are increasingly
becoming hubs for e-waste mining operations as the volume of electronic waste
in these regions grows. This trend is driven by the growing middle-class
population and urbanization.
Market Scope
Report Attributes |
Description |
Market Size in 2023 |
USD
2.8 billion |
Market Forecast in 2033 |
USD
7.4 billion |
CAGR % 2024-2033 |
15.1% |
Base Year |
2023 |
Historic Data |
2016-2022 |
Forecast Period |
2024-2033 |
Report USP |
Production,
Consumption, company share, company heatmap, company production capacity,
growth factors and more |
Segments Covered |
Type, recovery methods, metal recovered
and end use |
Regional Scope |
North America,
Europe, APAC, South America and Middle East and Africa |
Growth Drivers |
Governments and regulatory bodies
worldwide are imposing stricter regulations on the disposal of electronic waste. The rapid pace of innovation in consumer electronics has led to shorter product lifecycles and increased electronic waste generation. Growing awareness among consumers about the environmental impact of electronic waste is leading to increased participation in recycling and responsible disposal practices, contributing to the supply of e-waste for mining operations. |
Country Scope |
U.S.; Canada;
U.K.; Germany; France; Italy; Spain; Benelux; Nordic Countries; Russia;
China; India; Japan; South Korea; Australia; Indonesia; Thailand; Mexico;
Brazil; Argentina; Saudi Arabia; UAE; Egypt; South Africa; Nigeria |
Key Companies |
Umicore (Belgium), Aurubis (Germany),
Stena Metall Group (Sweden), SIMS Recycling Solutions (Australia), Boliden
(Sweden), Attero Recycling (India), Back Market (France), Aihuishou (China),
Rubicon Global (United States), Urban Mining Company (United States),
Huishoubao (China), Refurbed (Germany) |
Market Dynamics
The
Circular Economy Initiative plays a pivotal role in driving the electronic
waste mining market growth. As a key driver, this initiative promotes a more
sustainable and responsible approach to resource management. In the context of electronic
waste mining, it emphasizes the principles of reducing waste and extending the
lifecycle of products. By reusing, refurbishing, and recycling electronic
devices, the Circular Economy Initiative aligns with the goals of reducing
environmental impact and conserving valuable resources.
This
movement has led to a shift in consumer and corporate behavior, emphasizing
responsible e-waste disposal and fostering a greater demand for recycling
services. As more businesses and individuals recognize the environmental and
economic benefits of a circular approach, the electronic waste mining industry
experiences increased activity, investments, and innovation in recycling
technologies, further contributing to its growth. The Circular Economy
Initiative not only mitigates the environmental impact of electronic waste but
also drives the development of a more sustainable and resource-efficient
electronics industry.
The
growing focus on resource economics is a significant driver for the electronic
waste mining market. As societies become increasingly aware of the finite
nature of natural resources, especially critical and valuable materials used in
electronic devices, the need to recover and recycle these resources becomes
paramount. Resource economics emphasizes the economic value of materials,
fostering the recognition that discarded electronic waste is not merely waste
but a valuable resource waiting to be tapped.
With
rising commodity prices for metals like gold, silver, and copper, electronic
waste mining is no longer just an environmentally responsible practice; it's
also economically attractive. This realization has spurred businesses and
governments to invest in recycling infrastructure and technologies, driving the
growth of the electronic waste mining market. Furthermore, resource economics
encourages innovative approaches to materials recovery, fostering the
development of more efficient recycling processes and technologies. In essence,
the economic motivation behind resource economics aligns perfectly with the
sustainability goals of electronic waste mining, making it a pivotal driver in
the industry's expansion.
Market Analysis By Type
Based on type, electronic waste mining market is segmented into Mobile Phones, Computers, Televisions, Printers and Peripherals, Appliances, Audio/Video Equipment and Others. Mobile phone and accessories dominate the market with around 25% share, accounting around 6.03 million tons in 2022.
Source: We Market Research
Mobile
phones hold a major dominance in the electronic waste mining market, and
several key trends underscore this significant presence. First and foremost,
the rapid pace of innovation in the mobile phone industry leads to shorter
product lifecycles and an ever-increasing volume of discarded devices. This
dynamic creates a consistent and substantial supply of electronic waste.
Furthermore, mobile phones contain valuable materials, including precious
metals, rare earth elements, and high-quality plastics, making them
particularly attractive targets for recycling and resource recovery.
Additionally,
the global proliferation of mobile phone usage, driven by increased
connectivity and the ongoing expansion of 4G and 5G networks, ensures a
continuous inflow of discarded devices, further enhancing the dominance of
mobile phones in the electronic waste mining landscape. In response to this,
innovative recycling technologies are emerging, specialized in processing
mobile phones efficiently. Moreover, mobile phone manufacturers and governments
are increasingly acknowledging the need for responsible e-waste management,
further fueling this sector's growth. The dominance of mobile phones in
electronic waste mining is expected to persist and potentially intensify as
mobile technology continues to evolve and spread across the globe.
Market Analysis By Recovery Methods
Based
on recovery methods, the electronic waste mining market is segmented into
Mechanical Recycling, Hydrometallurgical Processing, Pyrometallurgical Processing,
Leaching Processes, Bioleaching, Chemical Recovery, Physical Separation, Combination of Methods.
Mechanical
based mining method dominates the market with an active share of 40% in 2022
and is also estimated to be the fastest growing one during the forecast
period. Below table will mainly explain
the cost and profit ratio of each methods based on which selection is done
Methods |
Cost (USD/metric
Tons) |
Profit
Percentage |
Mechanical Recycling |
50 |
40% |
Hydrometallurgical Processing |
100 |
30% |
Pyrometallurgical Processing |
200 |
20% |
Leaching Processes |
depending on the type of leaching
process used |
depending on the type of leaching
process used |
Bioleaching |
depending on the
type of leaching process used |
depending on the
type of leaching process used |
Chemical Recovery |
150 |
25% |
Source: We Market Research
Mechanical
recycling is a pivotal aspect of electronic waste mining market, and several
key trends are shaping this practice. Firstly, there is a growing emphasis on
automation and robotics in mechanical recycling processes. Automation
streamlines the disassembly and sorting of electronic waste, making the
recycling operations more efficient and cost-effective. Moreover, the
integration of artificial intelligence (AI) and machine learning in material
identification and sorting has improved the accuracy and speed of the recovery
process, enabling the extraction of valuable components from e-waste more
effectively.
Another
trend is the development of advanced shredding and separation technologies.
Innovations in shredders and separators allow for better material recovery, as
they can break down electronic waste into smaller components and separate
valuable materials from non-recyclable elements more precisely. This results in
higher yields of precious metals and other valuable resources.
Circular
economy principles are also influencing mechanical recycling, emphasizing the
reusability of electronic components. As a result, manufacturers are designing
products with ease of recycling in mind, ensuring that electronic devices are
modular and can be disassembled for efficient resource recovery. This trend
encourages a closed-loop approach, where recycled materials find their way back
into new products, reducing the need for primary resource extraction.
Furthermore,
the global expansion of electronic waste mining and mechanical recycling is
notable. This trend involves the growth of recycling operations in emerging
economies, which have witnessed a surge in e-waste generation. Governments and
organizations are investing in infrastructure and facilities to meet the
increasing demand for recycling services.
Finally,
there is a push towards environmentally conscious and sustainable mechanical
recycling practices. This includes the use of greener and safer processes, the
responsible management of hazardous materials, and compliance with
environmental regulations. As environmental awareness grows, these sustainable
practices are becoming not only a market trend but also a regulatory
requirement in many regions.
In
summary, mechanical recycling in electronic waste mining is evolving with
trends towards automation, advanced technologies, circular economy principles,
global expansion, and a strong emphasis on sustainability and environmental
responsibility. These trends collectively contribute to more efficient and
eco-friendly electronic waste mining practices.
Market Analysis By Region
Based
on the geography studied, electronic waste mining market is analyzed across
North America, Europe, Asia Pacific, South America and MEA. Asia Pacific
dominates the market with an active share of more than 55% in 2022, below
depicted the overall breakdown of mobile phones mined region wise in 2022:
·
Asia Pacific: Around 3.4
million metric tons
·
North America: 1.5
million metric tons
·
Europe: 1.0 million
metric tons
·
South America: 0.3
million metric tons
·
Middle East and Africa:
0.1 million metric tons
The
Asia-Pacific region is witnessing several key trends in electronic waste mining
market, reflecting the region's growing prominence in the global e-waste
recycling landscape. One significant trend is the exponential increase in
electronic waste generation, primarily driven by the rapid economic growth and
urbanization in countries like China and India. This surge in e-waste creates a
substantial supply for recycling operations and attracts investments in e-waste
management infrastructure.
Moreover,
the rise of the middle-class population in the Asia-Pacific region has led to
greater electronics consumption, further contributing to e-waste volumes. This
growing middle class is not only driving demand for new electronic devices but
also encouraging awareness about the importance of proper disposal and
recycling, fostering a culture of responsible electronic waste mining market.
Governments
in the Asia-Pacific region are increasingly implementing stringent e-waste
regulations and standards to address environmental concerns. This regulatory
push encourages businesses and consumers to adopt sustainable e-waste practices
and promotes the growth of compliant recycling facilities.
Furthermore,
there is a notable shift towards sustainable practices and innovation in
e-waste recycling technologies. The region is investing in research and
development, exploring innovative methods for more efficient and eco-friendly
electronic waste mining. The adoption of advanced sorting technologies,
automation, and environmentally conscious recycling processes is on the rise,
improving the overall efficiency and sustainability of the electronic waste
mining market in the Asia-Pacific.
Additionally,
the Asia-Pacific region is becoming a hub for circular economy initiatives.
Many countries are endorsing circular economy principles to reduce waste and
promote the reuse and recycling of electronic components. This shift aligns
with the sustainable objectives of electronic waste mining and has led to
collaborative efforts between governments, businesses, and NGOs to establish
effective e-waste recycling systems.
In
summary, the key trends in electronic waste mining in the Asia-Pacific region
encompass the rapid growth of e-waste generation, a burgeoning middle-class
population, stringent regulations, a focus on sustainable practices, and the
adoption of circular economy principles. These trends collectively reflect the
region's commitment to responsible e-waste management and position it as a
significant player in the global electronic waste mining market.
Competitive Landscape
Some
of the major companies operating within the electronic waste mining market are:
Umicore (Belgium), Aurubis (Germany), Stena Metall Group (Sweden), SIMS
Recycling Solutions (Australia), Boliden (Sweden), Attero Recycling (India),
Back Market (France), Aihuishou (China), Rubicon Global (United States), Urban
Mining Company (United States), Huishoubao (China), Refurbed (Germany)
Below
table depicts the market share and electronic waste mining volume in 2022 by
top 3 companies
Companies |
Market Share |
Electronic Waste
Mined (Million metric tons) |
Umicore |
20.17% |
5.0 |
Aurubis |
14.7% |
3.98 |
Stena Metall
Group |
11.8% |
2.56 |
Source: We Market Research
Research Report Following Segments:
Market, By Type
·
Mobile Phones
·
Computers
·
Televisions
·
Printers and Peripherals
·
Appliances
·
Audio/Video Equipment
·
Others
Market, By Recovery Methods
·
Mechanical Recycling
·
Hydrometallurgical
Processing
·
Pyrometallurgical
Processing
·
Leaching Processes
·
Bioleaching
·
Chemical Recovery
·
Physical Separation
· Combination of Methods
Market, By Material
Recovered
·
Precious Metals (Gold,
Silver, Palladium)
·
Base Metals (Copper,
Aluminum)
·
Rare Earth Elements
·
Plastics
·
Glass
· Other Metals
Market, By End Use
·
Electronics and
Semiconductor Manufacturing
·
Automotive
·
Jewelry
·
Construction
·
Energy
· Others.
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In 2022, around 24.1 million metric tons of electronic waste were mined.
Around 1.14 million metric tons of metals were extracted from the total e-waste mined.
Asia Pacific dominates the electronic waste mining market with an active share of around 55% in 2022.
In 2022 around 6.03 million metric tons of mobile phone waste were mined.
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