Global Scrap Copper Market Trends and Outlook for Recycling Plants
Global Scrap Copper Market Trends and Outlook for Recycling Plants
Published in News & Insights · Industry News
By Henan Jiacui Intelligent Equipment Co., Ltd.
For anyone operating a cable recycling plant, the scrap copper market is not background news. It is the single largest determinant of whether the business is comfortable or marginal, because the purchase price of cable and the sale price of copper granules are both set by it. Understanding the structural forces acting on that market is therefore an operational skill, not an academic one.
This article sets out the demand and supply backdrop, the pricing structure that connects refined copper to cable and granules, the regional shifts currently reshaping trade flows, and — most importantly — what all of it means for the decisions a recycling plant actually makes: what to buy, when to invest in capacity, and which output specification to target.
Figures below are drawn from published industry sources current at the time of writing (2026) and are cited descriptively rather than as a forecast. Market conditions change; verify current pricing with your own buyers and suppliers before making commitments.
The demand backdrop: electrification is a copper story
The dominant structural driver of copper demand is electrification, and it is unusually copper-intensive. Industry analysis widely cited in 2026 points to a cluster of reinforcing trends:
- Electric vehicles — global EV sales are projected to exceed 20 million units in 2026, and each vehicle requires roughly 3–4 times the copper of a conventional internal combustion vehicle. A battery-electric car carries on the order of 80 kg of copper against roughly 20 kg for a conventional car.
- Renewable generation — solar and wind installations require on the order of 4–5 tonnes of copper per megawatt of capacity, with the balance falling in cables, inverters, transformers and grid connection rather than in the generation equipment itself.
- Grid modernisation — ageing transmission and distribution networks in Europe and North America are being reinforced and digitised, and smart-grid technology is copper-intensive.
- Data centres — the build-out of AI and cloud computing capacity is a significant new source of copper demand, concentrated in power distribution and cabling.
The International Copper Study Group has indicated that global refined copper usage was expected to exceed 28 million tonnes in 2026, with secondary (recycled) copper accounting for roughly one-third of total supply. That share is the number a recycling plant should focus on: recycled copper is not a marginal or residual supply source, it is a structural pillar of the global copper balance.
The supply side: why recycling keeps gaining importance
Primary copper supply is getting harder, and this is the reason scrap carries a structural premium rather than merely a discount to refined metal.
Supply-side pressure | What it means for recyclers |
|---|---|
Falling ore grades — industry analysis describes average copper ore grades declining from around 1.5% to below 0.6% over the past two decades | More rock must be mined and processed per tonne of copper, raising costs and capital intensity for primary producers and improving the relative economics of secondary supply |
Long permitting timelines for new mines | Supply cannot respond quickly to price signals, which supports higher and more volatile copper prices — generally favourable for scrap values |
Geopolitical and social risk in major producing regions such as Chile, Peru and the DRC | Periodic supply disruption reinforces the strategic value of a geographically distributed, urban-mined supply base |
Water scarcity affecting mining operations in arid regions | A further constraint on primary output — and a reminder that dry-process recycling does not compete for process water |
Carbon intensity of primary copper | Recycled copper carries a substantially lower carbon footprint than primary copper — commonly cited at around 85% lower — which increasingly translates into commercial advantage as carbon accounting and recycled-content requirements spread |
How the pricing chain actually works
Understanding the grades is essential, because the price of what a granulator produces depends on which grade it corresponds to. The Bureau of International Recycling (BIR) grade structure is the reference most traders use, and its relationship to the LME copper price is broadly stable.
Material | Typical relation to LME copper | Where it comes from |
|---|---|---|
Millberry / bright bare copper (Berry grade) | 92–96% of LME | Clean, unalloyed, uncoated wire — the premium reference grade |
No. 1 copper wire | slightly below Berry | Clean wire with minimal coating or contamination |
No. 2 copper / mixed heavy copper | 85–90% of LME | Mixed, oxidized or plated copper scrap |
Insulated cable (purchased by recyclers) | typically 45–65% of LME, depending on copper content and gauge | The feedstock a granulation plant buys |
Copper granules from a well-tuned dry line | 90–96% of LME depending on measured copper content and buyer | The output a granulation plant sells |
The structure explains the whole business in one line: a plant buys insulated cable at a substantial discount to bare copper and sells separated granules at a small discount, and the spread has to cover processing cost. It also explains why purity matters so much — moving a granule product from the 90–92% band into the 94–96% band is a move between pricing tiers, and it is achieved by separation tuning rather than by buying a different machine.
Price context in 2026
Published market commentary through 2026 described LME copper averaging in the region of USD 9,500–10,200 per tonne in the first quarter, with forecasts for the remainder of the year holding in a broadly similar band and several major banks projecting levels above USD 10,000 per tonne on persistent supply deficits. Two practical observations follow.
- Scrap pricing tracks LME with a lag and a grade-dependent discount. When LME moves, the price you pay for cable and the price you receive for granules both move — usually not simultaneously, which creates both risk and opportunity for a plant that holds stock.
- Volatility rewards discipline, not speculation. A recycling plant that buys cable at a fixed discount to prevailing copper and sells granules against a contracted specification will survive price swings. A plant that builds its model on a rising price will not.
Regional shifts worth tracking
Region | Current dynamic | Relevance to a recycling plant |
|---|---|---|
China | Remains the largest consumer and importer; revised standards for copper scrap imports under the 'recycled copper raw materials' classification have stabilised import volumes and favoured higher-grade material | Grade discipline matters — material that does not meet the standard cannot move, so separation quality has a direct market consequence |
India | Rapid growth in scrap imports, supported by infrastructure and electrification programmes and relatively open import policy | An expanding buyer base for separated copper and for equipment |
Southeast Asia | Vietnam, Malaysia, Thailand and others are developing domestic recycling capacity; import regimes have tightened significantly, with Malaysia moving to restrict e-waste imports | Regional processing capacity is growing, but the regulatory bar is rising at the same time |
European Union | High recycling rates supported by regulation, carbon border measures and recycled-content requirements; exports of many waste streams to non-OECD countries prohibited | Compliance and traceability are becoming commercial requirements rather than optional extras |
North America | Strong domestic processing capability and competitive energy costs; export capacity for processed material | A mature market where cost per tonne is the decisive competitive variable |
What this means for a recycling plant — five practical implications
- Purity is a pricing decision, not a quality preference. The grade band your product falls into determines its price. Variable-speed air separation and a second separation pass are the cheapest route into a higher band.
- Feedstock strategy matters more than machine choice. A plant with access to consistent, well-characterised cable at a known discount will outperform a plant with a better machine and an erratic feed supply.
- Cost per tonne is the survival metric. When prices are volatile, the plant with the lowest processing cost per tonne of copper produced has the widest margin of safety. Track power, labour, blades and maintenance per tonne — not just per month.
- Dry processing has a compliance advantage that is becoming a commercial one. As effluent and permitting requirements tighten, and as carbon accounting spreads, a process with no water discharge and lower energy intensity per tonne is easier to permit, cheaper to run and easier to defend with customers who audit their supply chains.
- Plan capacity against secured supply, not against market optimism. Rising copper prices make granulation look more attractive, which is exactly when over-capitalisation happens. Size the line to material you have contracted.
Risks to the outlook
- A global growth slowdown reducing industrial copper demand faster than supply adjusts.
- Substitution in some applications, particularly where aluminium competes on cost and weight.
- Tighter trade restrictions fragmenting the scrap market and raising logistics cost for cross-border flows.
- Regulatory divergence between regions, making compliance documentation more complex for internationally active plants.
- Energy price volatility, which disproportionately affects energy-intensive processing and therefore the relative attractiveness of low-energy-intensity processes.
A planning checklist for recycling plant operators
- Do I know my actual copper content in feed, by weight, measured — not assumed?
- Do I know which pricing grade my granule product currently corresponds to, and what the next band up is worth per tonne?
- Do I know my processing cost per tonne of copper produced, including blades and power?
- Is my separation stage adjustable enough to hold purity as my feed mix changes?
- Have I secured enough working capital to buy good material when it appears rather than when I can afford it?
- Am I compliant with the traceability and documentation requirements of my destination markets?
- Is my capacity matched to conservative, contracted supply rather than to a favourable market window?
Frequently Asked Questions
What is driving copper demand growth in 2026?
Electrification is the dominant driver: electric vehicles, renewable generation, grid modernisation and data-centre construction. Electric vehicles use roughly 3–4 times the copper of conventional vehicles, and solar and wind installations use on the order of 4–5 tonnes of copper per megawatt of capacity. Industry sources indicated global refined copper usage would exceed 28 million tonnes in 2026, with recycled copper supplying roughly a third of it.
Is recycled copper cheaper than primary copper?
Not necessarily cheaper per tonne, but considerably less carbon-intensive — commonly cited at around 85% lower carbon footprint than primary copper — and structurally important because mine supply is constrained by falling ore grades, permitting delays and water scarcity. As carbon accounting and recycled-content requirements spread, that lower footprint is converting into commercial advantage, not merely an environmental credential.
How is scrap copper priced?
Scrap grades are priced as a percentage of the LME copper price, with the percentage depending on grade. The Bureau of International Recycling structure is the common reference: bright bare copper (Millberry) typically trades at 92–96% of LME, with lower grades below that. Insulated cable, which is what a granulation plant buys, is priced substantially lower according to its copper content and gauge.
Why does copper granule purity matter commercially?
Because buyers pay by grade band, and the band is determined by measured copper content. Moving a granule product from the low 90s into the 94–96% band as a percentage of LME is a material change in revenue per tonne, and it is achieved through separation tuning — variable-speed air separation and a second separation pass — rather than through buying a different machine.
Should I invest in more capacity now?
Base capacity decisions on conservative, contracted supply rather than on a favourable price environment. Rising copper prices increase the apparent attractiveness of granulation, which is precisely when over-capitalisation tends to happen. A machine sized at 70% of reliable supply, with the ability to add a shift, will outperform an oversized line that idles while still carrying finance and power costs.
Model Your Plant Economics with JIACUI
If you are weighing a capacity decision, we can help you model it: feed copper content, achievable recovery, grade band and processing cost per tonne. Send us your cable mix and local pricing and our engineers will work through the numbers with you.
Send us your material description, daily tonnage and target output, and our engineering team will respond with a model recommendation, a capacity calculation and a quotation. You are also welcome to book a live video walk-through of the Henan Jiacui Intelligent Equipment Co., Ltd. factory in Zhengzhou, Henan, China, or request a reference list of installations running comparable cable or waste streams.
About the Author and the Manufacturer
This article was prepared by the technical sales and engineering team of Henan Jiacui Intelligent Equipment Co., Ltd. (brand name JIACUI). Founded in 2015 in Zhengzhou, Henan Province, China, JIACUI designs and manufactures solid waste recycling equipment and copper wire granulation systems in a 5,000 m² factory with more than 100 employees. Our equipment holds CE, ISO and CSA certification, uses ABB and Siemens control components built to European design standards, and has been delivered to more than 400 customers in over 100 countries. Factory audits have been completed with SGS, BV and TÜV. We hold 27 patents covering shredding, granulation and separation technology. Where this article quotes performance figures, those figures come from our published model specifications and from commissioning tests on real installations; actual results depend on cable composition, feed preparation and operating practice.