The Science Behind Electronics Recycling | How It Works
Inside electronic equipment is a complex mixture of metals, plastics, glass, circuit boards, and other materials. Some of these materials can be recovered and used again, while others require specialized handling. Electronics recycling is the science of separating these materials and recovering them safely and efficiently. What Is Inside Electronic Waste? Electronic equipment is made from many different materials because each component has a specific technical purpose. For example, cables are rich in copper, while circuit boards contain mixtures of metals, fiberglass and polymers. Screens and appliances have their own distinct material combinations. How Does Electronics Recycling Work? There is no single recycling process for every electronic device. However, responsible recycling commonly involves several connected stages. 1. Collection and Inspection The process starts with collection and assessment. Equipment is identified and sorted according to its type, condition, material composition, and potential for reuse or recycling. Devices that still have useful life may be directed toward reuse or refurbishment. Equipment that has reached the end of its useful life moves into recycling and material recovery. For businesses, this stage can also include identifying equipment that contains sensitive information. 2. Safe Removal of Batteries and Other Components Certain components require special handling before further processing. Batteries, for example, can present fire and safety risks if damaged or improperly processed. Other components may contain substances that require controlled treatment. Removing these components early helps protect workers, equipment, and downstream recycling processes. 3. Dismantling and Demanufacturing Next, electronic equipment can be dismantled into its major components. A computer, for example, may be separated into: Dismantling makes it easier to direct different materials into the appropriate recovery streams. It can also improve the recovery of valuable components compared with treating an entire device as one mixed material. 4. Size Reduction and Mechanical Processing Some materials are further processed using shredding, crushing, milling, screening, or other mechanical techniques. The objective is to liberate different materials from one another. For example, a circuit board contains metals bonded with polymers and fiberglass. Mechanical processing can break the material into smaller fractions, making subsequent separation easier. Research into printed circuit board recycling has demonstrated the use of crushing, screening, magnetic and electrostatic separation to concentrate metals and separate them from non-metallic materials. 5. Separating Metals Using Physics One of the fascinating parts of electronics recycling is that different physical properties can be used to separate materials. Magnetic Separation Magnetic separators can remove ferrous metals such as iron and steel from mixed material streams. Eddy-Current Separation Eddy-current systems can separate certain non-ferrous metals, such as aluminium, from other materials. Density and Air Separation Materials with different densities or aerodynamic properties can be separated using specialized equipment. Screening Screens can separate processed materials according to particle size. Together, these technologies allow recyclers to progressively separate complex mixtures into more concentrated material streams. 6. Recovering Metals From Circuit Boards Printed circuit boards are among the most technically interesting components in e-waste recycling. They contain a mixture of: After appropriate preprocessing, specialized metal recovery facilities can use different technologies to recover valuable metals. Two broad approaches include pyrometallurgy and hydrometallurgy. Pyrometallurgy Pyrometallurgical processes use controlled high temperatures to process material and recover metals through melting, smelting, and refining. Hydrometallurgy Hydrometallurgical processes use controlled chemical solutions to dissolve and separate particular metals from processed materials. These technologies require specialized facilities and environmental controls. They are not processes that should be attempted through informal or uncontrolled recycling. 7. What Happens to Recovered Metals? Once metals have been separated and sufficiently processed, they can become secondary raw materials. Recovered materials such as: can potentially re-enter manufacturing supply chains. Precious metals such as gold, silver, and palladium can also be recovered from appropriate electronic waste streams. The value of this recovery is not only financial. Using secondary materials can help reduce the need to extract and process additional virgin resources. 8. What Happens to Electronic Plastics? Plastics are another major part of the e-waste stream. The recycling process may involve identifying, sorting, cleaning, grinding, and processing plastics according to their properties. However, electronic plastics are not always straightforward to recycle. Different polymers, additives, flame retardants, contamination, and mixed materials can make some plastics more difficult to recover economically. Therefore, responsible recycling does not mean that every component will automatically become a new product. The objective is to maximize safe and technically viable recovery. 9. Glass and Other Materials Electronic equipment can also contain substantial quantities of glass and composite materials. Screens, for example, require specialized handling depending on their technology and composition. Some materials can be recovered into appropriate processing streams, while materials that cannot be economically or safely recycled may require controlled treatment or disposal. This is one reason why electronics should not simply be placed into ordinary household recycling systems unless the local program specifically accepts them. The Chemistry Behind E-Waste Recycling Chemistry becomes particularly important when physical separation alone cannot produce sufficiently pure materials. Chemical processes can help: However, chemical recovery must be carefully controlled. Poorly managed chemical processing can create serious environmental problems. Responsible recycling therefore requires appropriate technology, worker protection, waste treatment, and environmental controls. Why Electronics Are Sometimes Called “Urban Mines” Instead of extracting everything from new geological deposits, recycling allows society to recover some of these materials from products that have already been manufactured. This concept is known as urban mining. What Happens to Data-Bearing Devices? Electronics recycling also has a data security dimension. Computers, servers, hard drives, SSDs, smartphones, and other storage devices may contain sensitive information long after the device is no longer being used. Before recycling data-bearing equipment, organizations should use an appropriate data sanitization or physical destruction process based on their requirements and applicable standards. Only after data security requirements have been addressed should the remaining equipment proceed through the appropriate recycling pathway. This connects two important areas: Data security + Environmental responsibility A device should not be considered properly disposed of simply because it has left the office or been handed to a recycler.
WEEE / E-Waste Trends in Africa
Africa is becoming increasingly connected to the digital economy. Smartphones, computers, televisions, appliances, networking equipment, solar technologies and other electrical products are becoming more common across homes, businesses and institutions. However, the growth in electronic equipment also creates a growing waste challenge. WEEE (Waste Electrical and Electronic Equipment), commonly referred to as e-waste, includes electrical and electronic products that have reached the end of their useful life or are no longer wanted. As technology adoption increases, the volume of discarded electronics is also rising. According to the Global E-waste Monitor 2024, Africa generated approximately 3.5 million tonnes of e-waste in 2022, equivalent to about 2.5 kg per person. Yet only about 0.7% was formally documented as collected and recycled. These figures highlight both the scale of the challenge and the significant opportunity to improve e-waste management across the continent. 1. E-Waste Generation Is Increasing One of the biggest trends is the continued growth in electronic consumption. Digitalisation, urbanisation, population growth and greater access to consumer electronics are increasing the number of electrical and electronic products in circulation. Africa’s total e-waste generation reached approximately 3.5 million tonnes in 2022, compared with lower volumes in previous years. Globally, e-waste generation reached 62 million tonnes in 2022 and is projected to reach 82 million tonnes by 2030. The trend means governments, businesses and consumers will need better systems for collecting, repairing, refurbishing and recycling electronics. 2. Formal Recycling Remains Very Low Perhaps the most important African e-waste trend is the gap between the amount of e-waste generated and the amount formally recycled. The Global E-waste Monitor estimates that only 0.7% of Africa’s e-waste was formally collected and recycled in 2022. This compares with a global formal collection and recycling rate of 22.3%. This does not mean that no electronics are being recovered or reused. Electronics can move through informal collection, repair, resale and material recovery channels that are not fully captured in official statistics. Nevertheless, the low documented rate shows the need for stronger formal collection networks, recycling infrastructure, reporting systems and environmentally sound processing. 3. Informal E-Waste Recycling Remains Important Across many African countries, informal businesses and individuals play a significant role in collecting, repairing, dismantling and recovering materials from discarded electronics. This activity can help recover valuable materials and extend the useful life of equipment. However, informal processing may involve unsafe dismantling, uncontrolled burning or inadequate handling of hazardous components. The challenge is therefore not simply to eliminate informal activity, but to create systems that can connect informal collectors and repair businesses with safer, regulated recycling networks. A stronger formal-informal sector relationship can help improve collection while protecting workers, communities and the environment. 4. E-Waste Regulations Are Expanding Another important trend is the development of national policies, legislation and Extended Producer Responsibility (EPR) systems. The Global E-waste Monitor 2024 identified 11 African countries with a national e-waste policy, legislation or regulation in 2022. Nine used the EPR principle, while only one had a collection target and none had a national recycling target at that time. EPR can make manufacturers, importers and other producers more responsible for the environmental impacts associated with products throughout their life cycle. As African countries strengthen these frameworks, businesses are likely to face greater expectations around responsible electronics management, documentation and end-of-life handling. 5. Electronics Are Becoming More Diverse E-waste is no longer limited to old computers and televisions. Modern WEEE streams can include: The growth of digital infrastructure and renewable-energy technologies is likely to create new categories of electronic waste that require specialised collection and recycling systems. For example, the Global E-waste Monitor projects that retired photovoltaic panels will reach 2.4 million tonnes annually by 2030, compared with about 600,000 tonnes in 2022. 6. E-Waste Is Becoming an Urban Mining Opportunity Electronic waste is not only a waste-management problem. It is also a source of valuable secondary raw materials. E-waste contains materials such as copper, aluminium, iron, plastics and precious metals that can potentially be recovered and returned to productive use. Globally, the metals contained in e-waste generated in 2022 were estimated to be worth around US$91 billion. For Africa, improving formal recycling could therefore support a more circular economy by keeping valuable materials in circulation while reducing dependence on virgin resource extraction. This concept is often described as urban mining. 7. Data Security Is Becoming Part of E-Waste Management As organisations replace computers, servers, hard drives, smartphones and other data-bearing equipment, e-waste management increasingly overlaps with information security. Simply throwing away an old device does not necessarily remove the information stored on it. Businesses are therefore paying greater attention to: This is particularly important for organisations handling confidential customer, employee, financial or business information. Responsible IT asset disposition can therefore combine data security, asset management and environmental responsibility. 8. Collection Infrastructure Is a Major Opportunity A major barrier to better e-waste recycling is not necessarily the absence of recyclable materials. It is often the difficulty of getting discarded electronics into appropriate collection and recycling systems. Effective e-waste management requires convenient collection points, transport networks, aggregation systems and reliable recycling facilities. Businesses can contribute by establishing clear internal procedures for separating unwanted electronics from ordinary waste and using responsible recycling providers. For consumers, convenient collection points can make responsible disposal much easier. 9. Businesses Will Have a Bigger Role Businesses are among the major generators of IT and electronic waste. Office computers, monitors, printers, networking equipment, servers, UPS systems and other devices eventually require replacement or disposal. As sustainability, environmental compliance and information security become more important, organisations are increasingly expected to demonstrate what happens to their retired equipment. This is creating demand for structured services such as: Collection → Data Destruction → Sorting → Refurbishment/Reuse → Recycling → Reporting and Certification A documented process can help organisations manage both environmental and information-security risks. 10. The Circular Economy Will Shape the Future The future of e-waste management is unlikely to depend on recycling alone. A circular approach focuses on keeping products and materials useful for
The Economics of Electronics Recycling
Electronics recycling is often discussed as an environmental issue, but it is also an economic one. Computers, smartphones, servers, appliances, televisions and other electronic products contain metals, plastics, glass and other materials that can potentially be recovered and returned to productive use. At the same time, collecting, transporting, dismantling and safely processing these products requires infrastructure, labour, technology and investment. This creates an important economic question: How much value is contained in discarded electronics, and how much of that value is actually recovered? Global data shows that the opportunity is significant, but so are the costs of managing e-waste responsibly. The Global E-Waste Economy in Numbers The Global E-waste Monitor 2024, published by the International Telecommunication Union (ITU) and UNITAR, reported that the world generated 62 billion kilograms of e-waste in 2022. That was equivalent to approximately 7.8 kg of e-waste per person. Only 13.8 billion kg, or 22.3%, was documented as formally collected and recycled. This means that the majority of global e-waste was not documented as being managed through formal collection and recycling systems. The economic significance becomes clearer when the materials contained in this waste stream are examined. Billions of Dollars in Materials E-waste is not made up only of waste materials. It contains resources that were originally extracted, processed and manufactured into electronic products. In 2022, the metals contained in global e-waste had an estimated value of approximately US$91 billion. This included approximately: The same e-waste stream contained an estimated 31 billion kg of metals, alongside approximately 17 billion kg of plastics and 14 billion kg of other materials, including glass, minerals and composite materials. These figures describe the estimated value of materials contained in e-waste. They should not be interpreted as the amount that a recycler can earn from collecting discarded electronics. Recovering those materials requires collection, sorting, dismantling, processing and access to appropriate downstream recycling markets. Why E-Waste Has Economic Value The economic value of electronics recycling comes mainly from resource recovery. A discarded electronic product may contain several material streams. Depending on the equipment, these can include ferrous metals, non-ferrous metals, precious metals, plastics, glass and other materials. Recycling allows some of these materials to be recovered and potentially used as secondary raw materials. This reduces the need to obtain every material exclusively from new extraction. The concept is often described as urban mining: recovering useful resources from products, infrastructure and waste already present in society. According to the Global E-waste Monitor, documented e-waste recycling in 2022 recovered approximately US$28 billion worth of secondary raw materials. That figure is considerably lower than the estimated US$91 billion value of metals contained in the year’s e-waste, illustrating the large gap between resources contained in electronic waste and resources actually recovered. Recycling Is Not Free One common misconception is that the value of metals automatically makes electronics recycling profitable. In reality, recycling has substantial costs. Electronic equipment must first be collected and transported. It may then need to be sorted, tested, dismantled and processed. Hazardous components may require controlled handling, while recovered materials need suitable downstream markets. The economic model therefore depends on several factors, including: A device containing valuable materials does not necessarily mean that recycling that individual device will generate a profit. The economics are determined by the entire recycling chain. The Hidden Cost of Poor E-Waste Management The economics of e-waste extend beyond the price of recovered materials. Improper handling can create environmental and social costs that are not always reflected in the market price of electronic products. The Global E-waste Monitor estimated that the overall economic impact of global e-waste management in 2022 represented a net cost of approximately US$37 billion. The assessment included approximately US$78 billion in externalized costs associated with impacts on people and the environment, including lead and mercury emissions, plastic leakage and contributions to global warming. It also estimated around US$10 billion in treatment costs. Against these costs, the report identified approximately US$28 billion in recovered metals and US$23 billion in monetized value from avoided greenhouse-gas emissions as economic benefits. This demonstrates an important point: The economics of electronics recycling cannot be measured only by the resale value of recovered materials. The costs avoided through proper management also matter. E-Waste Generation Is Growing Faster Than Recycling One of the most important trends is the widening gap between e-waste generation and formal recycling. Between 2010 and 2022, global e-waste generation increased from approximately 34 billion kg to 62 billion kg. During the same period, documented formal collection and recycling increased from approximately 8 billion kg to 13.8 billion kg. The Global E-waste Monitor describes e-waste generation as growing almost five times faster than documented formal collection and recycling during this period. This creates both an environmental challenge and an economic opportunity. More electronic products reaching end of life means more material potentially available for recovery. However, without adequate collection and processing infrastructure, much of that value remains outside formal recycling systems. The 2030 Outlook The trend is expected to continue. The Global E-waste Monitor projects that global e-waste generation could reach approximately 82 billion kg by 2030. Under a business-as-usual scenario, the documented formal collection and recycling rate could fall from 22.3% in 2022 to around 20% in 2030, because e-waste generation is increasing faster than recycling capacity. This is significant for the recycling industry. If collection and recycling systems do not expand alongside electronic consumption, the quantity of potentially recoverable materials outside formal systems will continue to grow. The Economic Importance of Secondary Raw Materials One of the strongest economic arguments for electronics recycling is the production of secondary raw materials. When metals are recovered from discarded electronics, they can become inputs for other manufacturing processes. This does not eliminate the need for mining, but it can reduce dependence on virgin material extraction for some applications. The Global E-waste Monitor estimates that documented e-waste recycling in 2022 avoided approximately 900 million tonnes of primary ore extraction. This illustrates why e-waste recycling is increasingly connected to discussions about
Should You Donate or Recycle Old Electronics? A Simple Guide
What should you do with an old laptop, phone, computer, printer, monitor, or other electronic device you no longer need? You generally have two responsible options: donate it if it is still useful, or recycle it if it has reached the end of its practical life. Choosing correctly can extend the life of electronics, protect your data, reduce electronic waste, and help recover valuable materials. But before deciding, there are a few important questions to ask. Donate or Recycle: Which Is Better? The answer depends on the condition, usefulness, age, and data stored on the device. A simple rule is: If someone can still safely and practically use it, consider donating or reusing it. If it is broken, obsolete, or no longer practical to use, recycle it responsibly. However, don’t treat donation as a way to get rid of equipment that is effectively waste. Passing unusable electronics to another person simply moves the disposal problem elsewhere. When Should You Donate Old Electronics? Donation can be a good option when an electronic device is: For example, a working laptop that is no longer needed by one person could potentially support a student, nonprofit, community program, or another user. Reuse keeps a product in service longer, which can reduce the demand for new electronics and the resources required to manufacture them. Prepare Electronics Before Donation Before donating a device, don’t simply hand it over. Take time to: For computers, servers, hard drives, SSDs, and other storage devices containing sensitive information, organizations should consider a verified data sanitization or destruction process rather than relying only on deleting files. When Should You Recycle Old Electronics? Recycling is usually the better option when equipment has reached the end of its useful life. Consider recycling electronics that are: Old electronics should not simply be placed in ordinary household trash where dedicated e-waste collection or recycling options are available. What If the Device Can Be Repaired? There is another option between donation and recycling: repair and reuse. A slow computer may only need additional memory or storage. A phone may need a battery replacement. A printer might only require a relatively simple repair. Keeping an electronic product in use for longer can reduce the need to replace it prematurely. So before recycling, ask: Can this device be safely repaired and realistically used again? If the answer is yes, extending its useful life may be the most sustainable choice. Don’t Let Your Data Become E-Waste One of the biggest risks associated with old electronics isn’t environmental—it’s data security. Computers, smartphones, servers, hard drives, SSDs, USB drives, and other devices can contain sensitive information long after they stop being used. This may include: Deleting a file does not necessarily mean the underlying data has been securely removed. Before donating, reselling, reusing, or recycling a data-bearing device, use an appropriate data sanitization or secure destruction method based on the sensitivity of the information. For organizations, maintaining documentation such as a certificate of data destruction can also provide evidence that retired data-bearing assets were handled appropriately. Donation vs Recycling: A Quick Comparison Situation Better Option Working laptop in good condition Donate or reuse Functional smartphone Donate or reuse Working monitor Donate or reuse Broken computer that is uneconomical to repair Recycle Obsolete printer Recycle Damaged or non-functional electronics Recycle Device containing sensitive business data Secure data sanitization/destruction first Repairable equipment Repair and reuse Equipment with no practical reuse value Recycle The key principle is reuse before recycling, and recycle before disposal whenever practical. Why Responsible E-Waste Recycling Matters Electronics contain materials that can potentially be recovered and reused. These include metals, plastics, glass, and various electronic components. Responsible recycling helps: Recycling is therefore not simply about getting rid of old electronics. It is also about recovering value from products that have reached the end of their useful life. What About Businesses With Large Amounts of Old Electronics? For businesses, handling obsolete IT equipment requires more planning than simply putting devices aside for collection. A responsible process may include: Identify → Assess → Secure Data → Reuse/Donate → Recycle → Document Businesses should identify equipment that is being retired, determine whether it can be reused, protect any data stored on it, and ensure equipment that cannot be reused is sent through an appropriate e-waste recycling process. For larger IT environments, an IT Asset Disposition (ITAD) program can help organizations manage retired computers, servers, storage devices, networking equipment, and other technology assets in a structured way. Common Mistakes to Avoid 1. Donating unusable electronics If something is effectively broken beyond repair, donating it may only transfer the waste to someone else. 2. Throwing electronics into general waste Electronic equipment should be handled through appropriate e-waste channels whenever possible. 3. Assuming deleted files are permanently gone Data protection should be treated as a separate step from physical recycling. 4. Ignoring batteries Some electronics contain batteries that require appropriate handling. Do not assume they belong in ordinary waste. 5. Forgetting documentation Businesses may need records showing what happened to retired equipment, particularly where sensitive data or compliance requirements are involved. A Simple Decision Checklist Before getting rid of an old electronic device, ask: Is it still working? → Yes: Can someone realistically use it?→ Yes: Reuse, donate, or refurbish it. Is it repairable? → Yes: Consider repairing it and extending its useful life. Is it broken, obsolete, or no longer practical to use? → Yes: Send it to a responsible e-waste recycling service. Does it contain sensitive data? → Yes: Securely sanitize or destroy the data before the equipment leaves your control. Frequently Asked Questions Is it better to donate or recycle electronics? If an electronic device is still functional and useful, donation or reuse can extend its life. If it is broken, obsolete, or beyond practical repair, responsible recycling is generally the better option. Should I erase my data before donating a computer? Yes. Personal and business data should be securely removed before donating, transferring, or recycling a computer. Can old electronics be
What Is Urban Mining?
When we think about mining, we often imagine workers extracting minerals from the ground. But there is another source of valuable materials all around us: discarded electronic devices. Urban mining is the process of recovering valuable materials from discarded products, infrastructure and waste instead of relying only on newly extracted natural resources. In e-waste recycling, it involves recovering materials such as copper, aluminium, steel and precious metals from old electronics. As electronic waste continues to grow worldwide, urban mining is becoming an important part of resource recovery and the circular economy.nt. As the world produces more electronic waste, urban mining is becoming an important part of the circular economy. What Is Urban Mining? Urban mining is the recovery of valuable materials from discarded products, buildings, infrastructure and waste streams. In e-waste recycling, it involves recovering metals, plastics and other materials from unwanted electronic equipment for recycling and potential reuse. Think of a city’s landfills, junkyards, and storage rooms as a giant, artificial ore deposit. Instead of blasting through rock in a remote mountain, “miners” extract gold, copper, silver, and rare earth elements from circuit boards, cables, and appliances sitting right in our neighborhoods. In e-waste management, urban mining involves collecting unwanted electronics and processing them to recover materials such as: Precious metals — gold, silver, and platinum from circuit boards and connectors Base and industrial metals — copper, aluminum, and steel from wiring, casings, and appliances Critical and rare earth elements — cobalt, lithium, and neodymium from batteries and magnets, increasingly important for EVs and renewable energy How the Process of Urban Mining Actually Works Recovering usable material from waste isn’t as simple as melting things down. It generally follows a few stages: 1. Collection Gathering discarded devices, vehicles, or materials through take-back programs, recycling centers, or demolition sites. 2. Sorting Equipment is sorted according to its type, condition and material composition. Devices may include computers, phones, printers, servers, cables, monitors and other electronic equipment. 3. Dismantling Electronics are carefully dismantled so that different components and materials can be separated. For data-bearing equipment, secure data destruction or sanitization should take place before equipment is recycled or processed, particularly when devices have been used by businesses or organizations. 4. Processing using mechanical shredding, chemical treatment, or smelting to separate metals from plastics and other materials. 5. Refining purifying the recovered metals to a quality that manufacturers can reuse. 6. Reintegration feeding the recovered materials back into supply chains to make new products. Why Is Urban Mining Important? It Reduces Pressure on Natural Resources Traditional mining requires the extraction of minerals from the earth. Recovering materials from existing products can provide an additional source of raw materials. It Supports the Circular Economy Urban mining helps keep materials in circulation rather than allowing them to become waste. This supports the principle of using resources for longer and recovering materials at the end of a product’s useful life. It Helps Reduce E-Waste Electronic waste is one of the world’s fastest-growing waste streams. Responsible recovery can prevent valuable materials from being lost through uncontrolled disposal. It Can Recover Valuable Metals Some electronic components contain concentrations of metals that make material recovery worthwhile. Printed circuit boards, for example, can contain copper and smaller quantities of precious metals. It Creates Economic Opportunities Urban mining can support businesses and jobs in collection, logistics, dismantling, recycling, material recovery and environmental services. It strengthens supply chains for critical minerals, which are in high demand for batteries, solar panels, and electric vehicles — and which many countries currently have to import. Urban Mining vs Traditional Mining The two approaches are different, but they can complement each other. Traditional Mining Urban Mining Extracts materials from the earth Recovers materials from existing products and waste Requires mining and processing of natural deposits Uses materials already present in the economy Depends on geological resources Depends on discarded products and infrastructure Produces mining-related waste Helps recover materials from waste streams Supplies new raw materials Helps return existing materials to production Urban mining does not completely replace traditional mining. Instead, it provides another way to obtain and reuse valuable resources. Why It Matters Beyond the Money Urban mining isn’t just a clever way to make cash from junk. It solves several problems at once: The Challenges Urban mining isn’t a silver bullet. A few real obstacles stand in the way: What You Can Actually Do Urban mining works at a global, industrial scale — but it starts with everyday choices: The Bottom Line Urban mining is essentially about finding value in what has already been produced. Old electronics may contain materials that can be recovered and returned to productive use. By combining responsible e-waste collection, secure data destruction, recycling and material recovery, organizations can help reduce waste while contributing to a more circular economy. The next time you see an old computer, phone, server or cable, remember: it may not simply be waste—it may also be a source of recoverable resources. Nalabix Eco supports responsible e-waste recycling and secure data destruction, helping organizations manage end-of-life electronics responsibly and recover materials through appropriate recycling channels.
