Computer Scrap Guide: Composition, Structure, and Performance for Engineers

Types of Computer Scrap

Computer scrap refers to discarded or obsolete electronic components and hardware that contain valuable metals, plastics, and other recyclable materials. These materials can be reclaimed and repurposed through advanced recycling processes, reducing environmental impact and conserving natural resources. Computer scrap is composed of metals (such as copper, gold, silver, and aluminum), insulated wires, circuit boards, and various plastics.

The value of computer scrap depends on its composition, metal content, and condition. It is typically categorized into different types based on material grade, recyclability, and potential for recovery of precious metals. Understanding these categories helps recyclers and scrap dealers maximize returns and support sustainable e-waste management.

Gold-Plated Computer Scrap

Includes connectors, pins, and edge contacts coated with a thin layer of gold, commonly found in CPUs, RAM modules, and high-end circuitry.

Advantages

• High precious metal content (gold, silver, palladium)
• Relatively easy to refine using chemical or electrolytic methods
• High market demand due to gold’s value and reusability
• Often contains secondary metals like nickel and copper

Limitations

• Thin gold layer requires processing large volumes for significant yield
• Recovery process can involve hazardous chemicals if not handled properly
• Contamination from solder or plastic reduces purity

Best for: Precious metal refiners, specialized e-waste recyclers, urban mining operations

Insulated Copper Wire Scrap

Found in power cables, internal wiring, and transformers; categorized by gauge, insulation type, and copper purity.

Advantages

• High conductivity and reuse potential in electrical manufacturing
• Multiple grades (e.g., #1, #2, stripped, unstripped) allow flexible pricing
• Durable and resistant to corrosion
• Widely accepted at recycling centers

Limitations

• Insulation must be removed or accounted for in weight
• Mixed or contaminated wire lowers value
• Manual stripping is labor-intensive

Best for: Wire recyclers, electricians, scrap yards, industrial reprocessing

Screws & Bolts (Ferrous/Non-Ferrous)

Fasteners made from stainless steel, zinc-plated steel, or brass, often mixed in bulk e-waste.

Advantages

• Reusable in manufacturing after sorting and cleaning
• Stainless steel and brass components have higher scrap value
• Easy to separate using magnets (ferrous vs. non-ferrous)
• Contributes to metal recovery efficiency

Limitations

• Low individual value; requires bulk collection
• Often contaminated with plastic or rubber washers
• Mixed batches reduce processing efficiency

Best for: Metal recyclers, hardware reclaimers, construction reuse markets

Circuit Board Scrap

Printed circuit boards (PCBs) from motherboards, graphics cards, and networking equipment containing complex metal alloys and trace precious metals.

Advantages

• Rich in gold, silver, palladium, copper, and tin
• High recovery potential through smelting or hydrometallurgical processes
• Standardized composition allows consistent processing
• One of the most valuable forms of e-scrap per kilogram

Limitations

• Contains hazardous materials (lead, brominated flame retardants)
• Requires specialized equipment for safe processing
• Plastic substrate complicates separation

Best for: Advanced recycling facilities, precious metal refiners, electronics refurbishers

Additional Common Types of Computer Scrap

• Power Supplies: Contain copper windings, aluminum heat sinks, and small PCBs—valuable for both metal recovery and component reuse.
• Hard Drive Platters: Made from aluminum or glass substrates with magnetic coatings; aluminum versions are recyclable, while rare earth elements may be recoverable.
• Aluminum Heat Sinks: High-purity aluminum components that are easily melted and reused in new products.
• Metal Enclosures & Chassis: Steel or aluminum cases that contribute bulk recyclable material and are often separated early in the recycling process.

Type of Scrap	Primary Materials	Precious Metals Present	Recycling Value	Processing Difficulty
Gold-Plated Components	Gold, Nickel, Copper	Gold, Silver	★★★★★	High
Insulated Copper Wire	Copper, PVC/Plastic	Negligible	★★★★☆	Medium
Screws & Bolts	Steel, Stainless Steel, Brass	None	★★☆☆☆	Low
Circuit Boards	Copper, Fiberglass, Tin, Lead	Gold, Silver, Palladium	★★★★★	High
Aluminum Heat Sinks	Aluminum	None	★★★☆☆	Low
Metal Enclosures	Steel, Aluminum	None	★★☆☆☆	Low

Expert Tip: Always separate computer scrap by material type before selling or recycling. Clean, sorted materials fetch significantly higher prices and reduce processing costs for recyclers, making your e-waste more valuable and environmentally friendly.

Industrial vs. Post-Consumer Computer Scrap

The quality and recyclability of computer scrap are heavily influenced by its origin:

• Industrial Scrap: Generated during manufacturing or assembly processes. It is typically cleaner, free of contaminants like adhesives or mixed materials, and has consistent composition—making it easier and more cost-effective to recycle.
• Post-Consumer Scrap: Comes from end-of-life devices used by individuals or businesses. Often contains residues such as glues, labels, inks, and mixed plastics, which complicate recycling and may reduce material purity and value.

For maximum value and sustainability, prioritize the collection and separation of industrial-grade computer scrap, and encourage responsible disposal programs to improve the quality of post-consumer streams.

Functions & Features of Computer Scrap: A Guide to Recycling and Resource Recovery

Recycling computer scrap plays a vital role in building a sustainable future by reducing electronic waste, conserving natural resources, and minimizing environmental pollution. Computers contain a wide range of valuable and hazardous materials that, when properly managed, can be recovered and reused. Understanding the functions and features of different types of computer scrap helps promote responsible disposal, supports the circular economy, and unlocks economic value from end-of-life electronics.

Key Components of Computer Scrap and Their Recycling Value

Computer Tower Scrap

The entire computer tower, once decommissioned, serves as a primary source of recyclable materials. Even if the system is non-functional, its structural frame, internal components, and housing contain metals, plastics, and electronics suitable for recovery. When marked as scrap, these towers can be disassembled for material sorting—enabling reuse of functional parts or recycling of raw materials. Proper handling ensures maximum resource recovery and prevents landfill accumulation.

Power Supply Units (PSU) Scrap

Power supplies contain hazardous substances such as lead, cadmium, and electrolytic capacitors with corrosive chemicals. They may also include small amounts of battery acid and transformers with copper windings. Due to these risks, PSUs require careful dismantling by certified recyclers. However, they are rich in valuable materials like copper, aluminum, and rare earth elements, making them a high-priority component for safe extraction and recycling.

Electronic Circuit Boards & Components

Printed circuit boards (PCBs), CPUs, RAM modules, and other electronic components are among the most valuable forms of e-scrap. These contain precious metals such as gold, silver, palladium, and platinum, along with base metals like copper, tin, and nickel. Specialized refining processes can recover these metals efficiently, reducing the need for environmentally damaging mining operations while supporting the production of new electronics.

Iron and Ferrous Metal Scrap

Computer chassis, brackets, screws, and internal supports are often made from steel or iron alloys. These ferrous metals are highly recyclable and commonly melted down for use in construction, automotive manufacturing, and industrial machinery. Recycling iron reduces energy consumption by up to 60% compared to producing new steel from raw ore, making it a key contributor to energy efficiency and carbon reduction.

Plastic Components

Computers contain significant amounts of plastic in casings, keyboards, mice, and cable insulation. While some plastics are challenging to recycle due to mixed resins or flame retardants, advances in sorting and processing technologies now allow for the conversion of computer plastics into pellets for use in new consumer goods, furniture, or industrial products. Proper recycling prevents microplastic pollution and reduces reliance on virgin petroleum-based plastics.

Gold and Precious Metal Recovery

Gold is used in minute quantities on connectors, pins, and integrated circuits due to its excellent conductivity and resistance to corrosion. Though each device contains only a fraction of a gram, the cumulative amount across millions of discarded computers is substantial. Urban mining—extracting gold from e-waste—is increasingly viable and far less environmentally destructive than traditional mining. Safe recovery methods prevent toxic runoff and protect worker health.

Memory and Semiconductor Materials

Contrary to the mention of "memory foam," which is unrelated to computer hardware, the correct term refers to memory chips (RAM, SSDs, flash storage) and semiconductor components. These contain silicon wafers, rare earth elements, and complex microstructures that can be reclaimed and repurposed. While full reuse is limited, recycling these components supports the supply chain for new electronic devices and reduces electronic waste toxicity.

Non-Ferrous Metal Casings

Beyond iron, many computer parts—such as aluminum heatsinks, metal keyboard casings, and shielding plates—are made from non-ferrous metals. These materials do not rust and are highly recyclable without loss of quality. Aluminum recycling saves up to 95% of the energy required to produce new aluminum, making it one of the most efficient recycling streams in the electronics industry.

Scrap Type	Key Materials	Recycling Benefits
Computer Towers	Steel, plastic, copper, circuitry	High-volume source of mixed recyclables; enables part reuse and material recovery
Power Supplies	Copper, aluminum, lead, PCBs	Rich in metals; requires safe handling due to hazardous components
Circuit Boards	Gold, silver, copper, palladium	Urban mining potential; reduces need for virgin mining
Ferrous Metals	Iron, steel	Easily recycled; widely used in construction and manufacturing
Plastics	ABS, polycarbonate, PVC	Reduces plastic pollution; can be reprocessed into new products
Precious Metals	Gold, silver, platinum	High economic value; energy-efficient recovery process

Best Practices for Handling Computer Scrap

Secure Data Destruction: Before recycling, ensure all storage devices are wiped or physically destroyed to prevent data breaches.

Use Certified Recyclers: Partner with e-Stewards or R2-certified facilities that follow environmental and safety standards.

Segregate Materials: Separate components by type (metals, plastics, electronics) to improve recycling efficiency and purity.

Avoid Landfill Disposal: Never dispose of computer scrap in regular trash—electronics contain toxins that can leach into soil and water.

Promote Reuse: Test and refurbish functional units or parts for donation or resale, extending product life cycles.

Important: Some components in computer scrap—such as capacitors, batteries, and circuit boards—contain hazardous materials that require special handling. Exposure to these substances can pose serious health and environmental risks. Always follow local regulations and safety protocols when managing e-waste. Responsible recycling protects ecosystems, conserves resources, and supports a sustainable digital future.

Scenarios of Computer Scrap: Sustainable Reuse and Recycling Practices

Computer scrap presents a wide range of applications that extend far beyond traditional disposal. As electronic waste becomes one of the fastest-growing waste streams globally, responsible management of end-of-life computers is crucial. Recycling and repurposing old computers not only reduce environmental impact but also unlock valuable materials and support social initiatives.

Material Recycling and Industrial Reuse

Recycling computer components transforms waste into valuable raw materials for new manufacturing processes. This circular economy approach reduces the need for virgin resource extraction and lowers carbon emissions.

• Plastics: High-impact polystyrene and ABS plastics from computer casings are processed into durable consumer goods such as clothing hangers, outdoor furniture, and construction materials like decking and insulation panels.
• Metals: Ferrous and non-ferrous metals—including steel, aluminum, and copper—are melted down and recast into industrial components, automotive parts, or new electronic enclosures.
• Precious Metals: Gold, silver, palladium, and platinum recovered from circuit boards and connectors are refined and reused in jewelry, medical devices, and new electronics, reducing reliance on mining operations.
• Residual Materials: Cardboard packaging and clean plastic films are repurposed for industrial packaging, cushioning, or molded protective inserts.

Did you know? One ton of circuit boards can contain up to 80 times more gold than one ton of gold ore.

Environmental Risks of Improper Disposal

When computers are not properly recycled, they often end up in landfills—posing serious environmental and health hazards due to their toxic content.

• Computers contain hazardous substances like lead, mercury, cadmium, and brominated flame retardants that can leach into soil and groundwater over time.
• Decomposition in landfills can take over 1,000 years, during which these toxins may enter ecosystems and food chains.
• Decaying electronics release methane and other greenhouse gases, contributing to climate change.
• Informal e-waste dumping sites in developing countries have been linked to increased rates of respiratory diseases, neurological damage, and birth defects.

Critical fact: Less than 20% of global e-waste is formally recycled—highlighting the urgent need for improved recycling infrastructure.

Refurbishment and Digital Inclusion

Refurbishing old computers is a powerful way to extend product life and bridge the digital divide. This process involves testing, repairing, upgrading hardware, and installing updated software to restore functionality.

• Refurbished systems are donated to schools, libraries, and nonprofit organizations to support education and workforce development.
• Low-income families gain affordable access to essential technology for remote learning, job searching, and communication.
• Many governments and NGOs partner with tech companies to scale refurbishment programs and promote digital equity.
• Enterprise-grade machines are often repurposed as secondary workstations or training tools.

Impact note: A single refurbished computer can serve multiple users over a decade, significantly reducing electronic waste.

Creative and Artistic Reuse

Computer scrap has inspired a growing movement of artists, makers, and DIY enthusiasts who transform obsolete technology into functional art and innovative tools.

• Hard drives, motherboards, and keyboards are repurposed into sculptures, wall art, and jewelry—valued for their aesthetic and symbolic meaning.
• Scrap metal components are forged into hand tools like hammers, wrenches, and chisels, especially in artisan workshops and maker spaces.
• Plastic and metal parts are used in educational STEM kits to teach electronics and engineering principles.
• Artists and designers sell upcycled tech art online, creating sustainable income streams from waste materials.

Creative tip: Many art schools and community centers now offer workshops on e-waste upcycling and sustainable design.

Best Practice Recommendation: Prioritize the "3 Rs" hierarchy—Reuse, Refurbish, then Recycle. Extending the lifespan of computers through refurbishment offers greater environmental and social benefits than recycling alone. When recycling is necessary, ensure it’s done through certified e-waste recyclers who follow strict environmental and data security standards.

Reuse Method	Primary Materials Used	Environmental Benefit	Social or Economic Impact
Industrial Recycling	Plastics, copper, gold, aluminum	Reduces mining, lowers CO₂ emissions	Supports green manufacturing jobs
Computer Refurbishment	Functional hardware, memory, storage	Delays e-waste generation by 3–7 years	Improves digital access and education
Artistic Upcycling	Circuit boards, metal casings, drives	Diverts waste from landfills	Creates cultural value and income opportunities
Component Harvesting	RAM, CPUs, SSDs, fans	Reduces demand for new parts	Supports repair economy and DIY culture

Additional Considerations for Sustainable E-Waste Management

• Data Security: Always ensure secure data wiping or physical destruction of storage devices before recycling or donation.
• Certified Recyclers: Look for R2 (Responsible Recycling) or e-Stewards certification when choosing disposal partners.
• Urban Mining: The recovery of metals from e-waste is increasingly referred to as “urban mining,” a key strategy for resource sustainability.
• Legislation: Many countries now enforce producer responsibility laws requiring manufacturers to take back old electronics.
• Consumer Awareness: Educating users about proper disposal options increases recycling rates and reduces environmental harm.

How to Choose Computer Scrap: A Strategic Guide for Profitable E-Waste Buying

Purchasing computer scrap can be a highly profitable venture when approached strategically. With the global e-waste market growing rapidly—projected to exceed 75 million metric tons by 2030—buyers who specialize in targeted niches and optimize their supply chain can unlock significant financial returns. Success in this industry depends on more than just volume; it requires a deep understanding of market demand, material composition, logistics, and regulatory compliance. Whether you're sourcing for precious metal recovery, hardware resale, or component harvesting, the key lies in precision and planning.

Important Note: Computer scrap contains hazardous materials such as lead, mercury, and cadmium. Always handle with protective gear and ensure compliance with environmental regulations to avoid health risks and legal penalties.

Key Factors to Consider When Buying Computer Scrap

Maximizing profitability and minimizing risk involves a structured approach to procurement. The following factors should be thoroughly evaluated before making any purchase:

1. Define Your Target Customer and Market Niche

   Before placing an order, conduct in-depth market research to identify what your end customers truly need. Are they electronics refurbishers, metal refiners, PCB recyclers, or hardware resellers? Different buyers demand different scrap profiles:

   • Refineries prioritize high-value materials like gold, silver, and copper found in circuit boards and connectors.
   • Hardware resellers seek functional components such as RAM, CPUs, SSDs, and GPUs.
   • Manufacturers may want plastic casings or specific metals for remanufacturing.
   • Builders and hobbyists often look for usable parts from older systems.

   Companies like Computer Recycling Centers use customer segmentation to tailor their purchasing, ensuring they only acquire scrap that aligns with downstream demand—reducing waste and increasing margins.

2. Assess Volume, Weight, and Logistics

   Computer scrap is often bulky and heavy, especially when dealing with full towers, monitors, or server racks. Buyers must be prepared to manage large volumes efficiently:

   • Heavy components like power supplies and motherboards contain dense metals that increase shipping weight significantly.
   • Storage space must accommodate palletized loads or container-sized shipments.
   • Transportation may require specialized equipment such as forklifts, pallet jacks, or flatbed trucks.
   • Some customers may require bulk delivery, necessitating inventory stockpiling to meet contractual obligations.

   Always inquire about pickup, loading, and transport logistics with your supplier. Factor in freight costs, fuel surcharges, and handling fees to accurately calculate your cost per pound.

3. Understand Ordering Requirements and Timelines

   Suppliers vary widely in their lead times, minimum order quantities (MOQs), and availability. Key considerations include:

   • Some suppliers require orders to be placed weeks in advance, especially during peak e-waste disposal seasons.
   • High-demand periods (e.g., corporate upgrades, tax season) can lead to supply shortages or price increases.
   • Establish long-term relationships with reliable suppliers to secure consistent inventory.
   • Be prepared to stockpile inventory during favorable pricing windows to hedge against future shortages.

   Creating a procurement calendar based on historical trends and supplier schedules can help maintain a steady flow of materials.

4. Ensure Compliance with Environmental and Shipping Regulations

   E-waste is heavily regulated due to its toxic components. Non-compliance can result in fines, legal action, or shipment seizures. Key regulatory areas include:

   • Environmental Protection Agency (EPA) rules on hazardous waste handling and disposal.
   • DOT regulations for transporting materials containing leaded glass or batteries.
   • International shipping laws (e.g., Basel Convention) if exporting scrap.
   • Data security laws requiring proper data destruction before resale or recycling.

   Always verify that your supplier follows certified data wiping or destruction procedures to avoid liability from data breaches.

5. Evaluate Supplier Certifications and Quality Standards

   Not all scrap is created equal. Quality varies significantly based on how the e-waste was processed. Prioritize suppliers with recognized certifications:

   • R2 (Responsible Recycling) and e-Stewards certifications ensure ethical and environmentally sound practices.
   • Certified recyclers often pre-sort and categorize materials, improving purity and value.
   • Ask for material composition reports or sample batches before committing to large orders.
   • Establish clear specifications (e.g., "motherboards only," "no mixed plastics") to avoid contamination.

   High-quality, segregated scrap commands better prices and reduces processing time and costs.

Factor	Key Questions to Ask	Common Risks	Best Practices
Target Market	Who will buy this scrap? What do they value most?	Misaligned inventory, low resale value	Segment suppliers by output type; match scrap to buyer needs
Volume & Logistics	Do I have space and equipment to handle this load?	Overwhelmed storage, high transport costs	Negotiate FOB terms; use palletized, pre-sorted loads
Ordering Timeline	What’s the lead time? Is there a MOQ?	Stockouts, missed opportunities	Build supplier relationships; forecast demand
Regulatory Compliance	Is the scrap legally transportable? Data wiped?	Fines, shipment rejection	Verify certifications; audit supplier processes
Scrap Quality	Is the material sorted? Any contamination?	Low yield, processing delays	Demand pre-sorted batches; test samples first

Expert Tip: Start small. Purchase a test batch from a new supplier to evaluate material quality, consistency, and compliance before scaling up. This minimizes risk and helps build a reliable supply chain over time.

Additional Strategic Recommendations

• Track material prices (e.g., copper, gold, aluminum) using commodity market data to time purchases strategically.
• Invest in basic sorting tools (magnets, multimeters, label scanners) to quickly assess scrap value on arrival.
• Document every transaction, including weight, source, and certification, for audit and resale purposes.
• Consider partnering with ITAD (IT Asset Disposition) companies for access to higher-quality, enterprise-grade e-waste.
• Stay updated on e-waste legislation in your region and potential changes that could impact operations.

Choosing the right computer scrap is not just about buying cheap material—it's about buying smart. By focusing on quality, compliance, and market alignment, buyers can transform e-waste from a logistical challenge into a sustainable revenue stream. Remember, in the world of scrap electronics, knowledge is not just power—it's profit.

Frequently Asked Questions About Computer Recycling and Disposal

Q1: What computer parts are recyclable?

Many components of a computer are recyclable, making e-waste recycling an environmentally responsible choice. Common recyclable parts include:

• Circuit Boards: Contain valuable metals like copper, tin, and trace amounts of gold and silver.
• Metal Casings: Typically made from aluminum or steel, these are easily melted down and reused.
• Plastic Components: Found in keyboards, cases, and internal supports—often recyclable if labeled with acceptable resin codes (e.g., #7 for mixed plastics).
• Hard Drives and SSDs: While data-bearing, their metal and circuit content is recyclable after secure data destruction.
• Power Supplies: Rich in copper wiring and aluminum heat sinks, though they must be handled carefully due to capacitors.

It's important to note that not all recycling centers accept every type of electronic component. Always verify with your local e-waste facility or municipal program to ensure proper disposal and maximize recycling efficiency.

Q2: How do I safely dispose of old computers?

Safely disposing of old computers involves both data security and environmental responsibility. Follow these key steps:

1. Data Removal: Use certified data wiping software (e.g., DBAN or Blancco) to erase all personal information from hard drives and SSDs. For maximum security, consider physical destruction (drilling or shredding) after backup.
2. Backup and Deauthorization: Remove licenses from software, deauthorize devices (e.g., iTunes, Adobe), and back up any files you wish to keep.
3. Choose a Certified Recycler: Look for recyclers with R2 (Responsible Recycling) or e-Stewards certification to ensure ethical and environmentally sound processing.
4. Drop-Off or Pickup: Many cities offer e-waste collection events, or recyclers provide mail-in programs and pickup services for businesses.

Never dispose of electronics in regular trash—hazardous materials like lead, mercury, and cadmium can leach into soil and water if not properly managed.

Q3: Where can I sell my outdated computer equipment?

If your old computer gear still has functional value, selling it can be a smart way to recoup costs and extend product life. Popular and reliable options include:

• eBay: A global auction and sales platform ideal for niche or vintage tech, offering broad reach and competitive pricing.
• Craigslist: Great for local sales—avoid shipping costs and meet buyers in person at safe public locations.
• Facebook Marketplace: Widely used for local transactions, with built-in community trust features and easy listing tools.
• Swappa or Gazelle: Specialized electronics resale platforms that offer secure transactions, condition grading, and fast payouts.
• IT Asset Disposition (ITAD) Companies: Businesses that buy bulk outdated equipment from organizations for refurbishment or responsible recycling.

To get the best price, clean the devices, provide accurate specifications, and include original accessories. Be transparent about wear and performance issues to build buyer trust.

Q4: What is the most recyclable part of a computer?

The most recyclable components in computers are the metal elements, particularly:

• Copper: Found in wiring, motors, and circuitry—highly conductive and infinitely recyclable without quality loss.
• Aluminum: Used in heat sinks, casings, and structural supports—lightweight, corrosion-resistant, and energy-efficient to recycle.
• Precious Metals: Printed circuit boards (PCBs) contain small but valuable amounts of gold, silver, palladium, and platinum, which are recovered through specialized refining.

Plastic parts are also recyclable, but only certain types (like ABS or polycarbonate) are accepted by facilities, and contamination can reduce their value. Meanwhile, glass from monitors and lithium batteries require separate handling due to toxicity.

A breakdown of recyclability by component:

Component	Recyclability Level	Key Materials Recovered
Circuit Boards	High (with proper processing)	Gold, silver, copper, palladium
Metal Casings & Heat Sinks	Very High	Aluminum, steel, copper
Plastic Housings	Moderate (depends on resin type)	ABS, polycarbonate
Wiring & Cables	High	Copper, insulation (if separated)
Batteries (e.g., CMOS, laptop)	Special Handling Required	Lithium, nickel, cobalt

Maximizing recovery of these materials helps reduce mining needs and lowers the environmental footprint of new electronics production.

Q5: How can one extract gold from computer scrap at home?

While it's technically possible to extract gold from computer components like CPU pins, edge connectors, and RAM slots, doing so at home is strongly discouraged due to serious safety and environmental risks.

The process typically involves hazardous chemicals such as:

• Aqua Regia: A corrosive mix of nitric and hydrochloric acid capable of dissolving gold—but also releasing toxic fumes and posing explosion risks.
• Cyanide Solutions: Used in industrial refining but extremely dangerous and illegal for unlicensed individuals to handle.
• Other Solvents: May produce harmful byproducts and require advanced ventilation and protective gear.

Even small-scale attempts can result in chemical burns, respiratory damage, or environmental contamination if waste is improperly disposed of.

Safe Alternative: Instead of DIY extraction, take your computer scrap to a certified e-waste recycler or precious metal refiner. These facilities use controlled, environmentally compliant methods to recover gold and other valuable metals efficiently and legally. Some even offer compensation based on the weight and content of your materials.

Recycling through professionals ensures safety, compliance with regulations, and contributes to the circular economy of critical raw materials.