It’s easy to assume every retired lithium-ion pack is a small pot of gold waiting to be shredded. In practice the recycling value of an end-of-life pack depends almost entirely on cathode chemistry, and in 2026 that value ranges from genuinely profitable to actively negative. Here’s what the current numbers look like, chemistry by chemistry, and why the picture is moving fast.
Note: this is primarily about recycling value — material recovered by shredding a pack into “black mass” and reclaiming the metals. Second-life reuse (redeploying a pack with usable capacity into stationary storage) sits in a different, generally higher, value bracket; it’s out of scope for most of this piece but shows up for comparison in the worked example below.
Key points
- Recycling value tracks cathode metal content, not pack size. Nickel- and cobalt-rich chemistries (NMC, NCA, LCO) carry real recoverable value; LFP, which now leads global EV deployment, largely doesn’t.
- Lithium alone accounted for roughly half the contained-metal value of NMC and LCO cells at 2023 pricing despite being a minority of cell weight by mass.
- LFP recycling in North America is currently running at a negative value: recyclers are charging a gate fee of roughly $1.50–2.00/kg rather than paying for the scrap.
- Higher-value chemistries can still net positive at scale. Recyclers are paying around $2/kg or more for NMC/NCA/LCO scrap. However, that’s a bulk-shipment number, not a single-pack number.
- Logistics and hazmat shipping are largely fixed per shipment, so a single retired pack can lose money even in a chemistry that’s profitable at scale. One documented mid-2026 case: the only recycling quote obtained for a single working EV pack was –$1,800, despite the pack being good enough to sell as a used spare part.
- The feedstock mix is about to flip: production scrap is roughly 73% of today’s recycling stream versus 27% genuine end-of-life material, forecast to reverse to roughly 41%/59% by 2033 as the first big wave of EVs retires — and that wave will be increasingly LFP.
- Commodity volatility is doing as much to move these numbers as anything technical: lithium carbonate roughly doubled from ~$13,400/tonne (Dec 2025) to ~$26,000+/tonne (Jan 2026) before easing back, and cobalt has stayed elevated near $55,000–56,000/tonne through mid-2026 following the DRC’s export restrictions.
1. Chemistry sets the ceiling
Contained-metal value per tonne of cells is a reasonable starting point before processing and logistics costs come off. On 2023 Fastmarkets pricing, NMC cells carried roughly $8,700/tonne of recoverable lithium, nickel and cobalt; LCO cells around $11,130/tonne (cobalt-heavy); LFP cells only around $3,170/tonne. Converting those to a rough $/kWh basis using typical cell-level energy densities (LFP ~140 Wh/kg, NMC ~230 Wh/kg, LCO ~190 Wh/kg) puts gross contained-metal value at roughly $20-25/kWh for LFP, $35-40/kWh for NMC, and $55-60/kWh for LCO. None of that is net of processing or logistics — see point 3.
This post has been built based on the support of and sponsorship from: illumion, Custom Power, Quarto Technical Services, Eatron Technologies and About:Energy
2. LFP’s growth is a recycling headache, not just a chemistry footnote
LFP made up over half of global EV battery deployment in 2025, per the IEA’s Global EV Outlook 2026, and it’s the default for stationary storage. That’s good for cost and safety and bad for recycling economics: no nickel, no cobalt, nothing that currently makes recycling pay for itself. Recyclers who sized capacity a few years ago for a nickel-rich feedstock are now, in one analyst’s words, “ill-prepared” for the LFP-heavy scrap stream actually arriving. Cirba Solutions’ CEO put it more bluntly in a July 2026 NPR interview: “There’s really no value in recycling iron phosphate.”
3. Scale changes the sign, not just the size
The gap between bulk-market pricing and what an individual pack actually gets quoted is the most useful thing in this whole picture. A 2026 case from a Massachusetts salvage yard: a working Tesla pack, priced at $1,200 as a used spare part, drew only one recycling quote — negative $1,800 — because logistics and hazmat shipping for a single pack outweighed the metal value. Two Chevy Volt hybrid packs from the same yard were accepted by a recycler at $0, which the owner counted as a win. None of this shows up in a headline $/kg figure, which is almost always a bulk-shipment number from a large recycler with the volume to make the logistics cost per pack small.
4. A worked example: what is a 2017 Model 3 Long Range pack actually worth?
Point 3 works better as a live number than an abstraction. Take a 2017 Model 3 Long Range: Panasonic 2170-format NCA cells, 96s46p, 78.8 kWh nominal (73.5 kWh usable), pack mass around 479 kg. There are five different exits for that pack today, not just the two (“sell it” or “recycle it”) most people default to, and they land on very different numbers.
| Route | What you’d actually get | Why |
|---|---|---|
| 1. Sell as a working spare/replacement | ~$3,500–5,500 (~$45–70/kWh) | Used 75 kWh Tesla packs currently list around £3,540–5,210 (~$47–74/kWh); the actual price depends heavily on tested capacity and whether it comes with any warranty |
| 2. Second-life resale to a storage integrator | ~$3,200–7,000 (~$45–95/kWh usable), if SoH is still above ~70–75% | Integrators buying tested EV packs for stationary BESS have quoted roughly $45–95 per usable kWh for a comparable NMC/NCA pack; a 9-year-old pack with moderate use plausibly still clears that bar, but this route disappears fast below ~70% SoH |
| 3. Realistic recycler quote for this one pack, sent alone | Roughly $0 to –$1,800 | Real July 2026 case: an equivalent single working Tesla pack drew only one recycling quote, at –$1,800 |
| 4. Value of the raw materials (gross, 100% recovery, today’s prices) | ~$2,700–2,900 (~$35–37/kWh) | ~63 kg nickel, ~3.5 kg cobalt (this cell chemistry is already low-Co, under 50g/kWh), ~8 kg lithium (~42 kg as carbonate), ~47 kg copper, priced at current LME/Fastmarkets levels |
| 5. What’s actually recoverable net of process losses and cost | ~$2,500–2,700 recovered; net ~+$1,900–2,200 at bulk scale, but often negative for a single pack | 95%+ Ni/Co/Cu and 85–95% Li recovery is achievable with modern hydrometallurgy — the metals themselves are profitable; shipping one pack alone is what flips the sign |
The order tells the real story. Selling the pack whole beats every recycling route by a wide margin. Provided it’s still healthy enough to sell:
- either like-for-like as a spare (route 1)
- second life once tested and requalified (route 2)
Only once a pack fails that bar does recycling enter the picture at all, and even then the gap between row 3 and row 5 is almost entirely about logistics, not chemistry: the metals inside are worth close to $2,800, a scaled recycler processing a truckload of them will realise most of that, but a lone pack shipped on its own can still lose money because hazmat shipping and handling cost is largely fixed per shipment rather than per kWh.
One caveat on method: the $2,700–2,900 material-value figure is a bottom-up estimate built from a sourced cobalt-content figure for this specific cell family and today’s spot prices, and it lands meaningfully higher than a looser, commonly quoted online estimate for a generic 75 kWh NMC-class pack (~$480–820). I trust the bottom-up number more, it’s tied to the actual chemistry rather than a rounded market average (just flagging the gap in case it gets checked against a different source).
5. The feedstock is about to shift under everyone’s feet
Fastmarkets puts today’s battery recycling feedstock at roughly 73% production scrap (defective cells rejected in manufacturing) and 27% genuine end-of-life packs. That flips to roughly 41%/59% by 2033 as the EVs sold in the early-to-mid 2020s reach retirement, at the same time as the fleet mix skews further toward LFP. Total lithium-ion demand is forecast to grow roughly five-fold over the same period, and recycled material’s share of total battery-metal supply is forecast to grow from under 5% today to around 12% for cobalt, 7% for lithium and 5% for nickel by 2033. A fast-growing minority, not yet a majority supply source.
6. Policy is starting to backstop the economics
Colorado passed a producer-responsibility law in mid-2026 making automakers financially responsible for recycling abandoned or stranded EV batteries. A direct response to the scenario in point 3, where a salvage yard quoted a negative price and has no better option. It had backing from automakers, recyclers (Redwood Materials and Cirba Solutions both supported it publicly) and salvage-yard trade bodies, and is being watched as a template other states may follow, alongside the EU’s already-in-force battery regulation.
Summary
Recycling value at end of life is a chemistry story wearing a market-price costume. The chemistry sets the ceiling, nickel and cobalt content is still what pays the bills, and the market (lithium and cobalt pricing especially) currently swings that ceiling by a factor of two in either direction within months. Scale then decides whether a given pack lands above or below the line where processing and logistics costs eat the material value entirely. As the EOL wave shifts from factory scrap to genuinely aged packs, and as those packs skew increasingly LFP, more of the fleet is going to sit on the wrong side of that line unless recycling technology, gate-fee structures, or producer-responsibility rules (Colorado’s new law being the first US example) close the gap.
→ 4R’s Repair, Reman, Repurpose, Recycle
References
- Domonoske, C. (2026). EV battery recycling has a math problem. NPR, 13 July 2026. https://www.npr.org/2026/07/13/nx-s1-5847025/ev-battery-recycling-economics
- Harty, J. (2023, updated 2025). Six key trends in the battery recycling market. Fastmarkets. https://www.fastmarkets.com/insights/six-key-trends-battery-recycling-market/
- Dainen Materials. Black Mass Market Outlook and Price Trends. https://www.dainenmaterials.com/black-mass-market-outlook-and-price-trends/
- Circunomics (2026, updated 3 July). LFP vs NMC Battery: What Every Buyer & Seller Must Know. https://www.circunomics.com/blog/lfp-vs-nmc-battery-second-life-value-explained
- IEA (2026). Global EV Outlook 2026 — Electric vehicle batteries. https://www.iea.org/reports/global-ev-outlook-2026/electric-vehicle-batteries
- First America. Comparing Recycling Value of LCO, NMC, NCA, and Other Lithium-Ion Batteries. https://firstamerica.com/comparing-recycling-value-of-lithium-batteries/
- McKinsey & Company (2024). Second-life EV batteries: The newest value pool in energy storage. https://www.mckinsey.com/industries/automotive-and-assembly/our-insights/second-life-ev-batteries-the-newest-value-pool-in-energy-storage
- Nature Communications (2024). Pathway decisions for reuse and recycling of retired lithium-ion batteries considering economic and environmental functions. https://www.nature.com/articles/s41467-024-52030-0
- EVShop.eu. 75kWh Tesla Model 3 battery pack, Long Range (used) — listing referenced for current used-pack pricing. https://evshop.eu/en/batteries/292-tesla-model-3-full-battery-pack-75kwh-long-range.html