Research

Ever wonder what types of organizations are best suited to a post-disposable economy or how we can make our collective future more fun and sustainable?

Explore ideas like those along with wonderings on circularity, ecology, and the systems that surround us.
Published on Substack as The Riparian.

Scroll down to discover interactive data based on research from the UN Global E-Waste Monitor 2024, BloombergNEF, IEA Global and more.

THE RIPARIAN


If humans are animals, what does that make organizations? by Kenny Arnold

What we can learn by reframing organizations as organisms

Read on Substack

How can we make our future more sustainable and fun? by Kenny Arnold

Leverage play and collective action for positive impact.

Read on Substack

INTERACTIVE RESEARCH


ELECTRONICS LIFECYCLES

Annual e-waste generation is on track to reach 82 million tons by 2030. Each product category reaches end-of-life on its own timeline.

Six waves, six different problems. Solar panels, EV batteries, and software-obsoleted PCs are all queuing up. The infrastructure built today decides whether these become waste streams or resource streams.

Year
2000
Wave
01 / 06
01Declining
CRT Monitors & TVs
Peak disposal: 2005–2020
0
Mt stockpiled (US)
1–2 kg of lead per unit in funnel glass — roughly 20% of total weight.
Manufacturing ended 2010–2015. Limited recycling markets cause continued stockpiling.
Classified as RCRA hazardous waste due to lead content.
Lead Glass Copper
02Active
First-Gen Flat Panels
Peak disposal: 2015–2025
0
yr avg lifespan (was 9)
Mercury in pre-2009 LCD backlights requires special handling.
TV lifespan dropped from 9 years (2011) to 6.5 years (2022).
Production era 2005–2012 now reaching mass end-of-life.
Mercury Indium Plastic Glass
03Emerging
Solar Panels
Peak disposal: 2030–2050
0
Mt global waste by 2050
25–30 year lifespan — early 2000s installations now reaching end-of-life.
$15B recovery value by 2050 in silver, silicon, and copper.
Currently ~90% landfilled. Recycling infrastructure urgently needed.
Silicon Silver Copper Aluminum
04Fast growing
EV Batteries
Peak disposal: 2035–2050+
0
Mt end-of-life by 2040
343% increase from 2025 to 2030 alone (0.9Mt → 5.2Mt).
Recycling capacity at ~1/3 utilization — major volume arrives late 2030s.
Battery demand hits 3 TWh by 2030. Critical minerals bottleneck looming.
Lithium Cobalt Nickel Graphite
05Imminent
Windows 10 EOL PCs
Support ended: October 2025
0
PCs at risk
Windows 11 TPM 2.0 requirement excludes ~20% of installed base.
Functional hardware made obsolete by software requirements.
Opportunity: Linux conversion, refurbishment programs, extended support.
Copper Gold REEs Plastics
06Continuous
Smartphones
Ongoing ~2.5yr replacement cycle
0
units annually out of use
16+ billion phones owned globally. 6B+ manufactured annually.
Over 50% stored obsolete in drawers — most don't reach recyclers.
Part of 4.6Mt small IT category (2022). Only 22% formally recycled.
Lithium Cobalt REEs Gold Copper
Scroll to surf the waves
Washed ashore
Six waves at a glance.
Infrastructure built today decides whether these become waste or resource streams.
01 · Declining
CRT Monitors & TVs
2005–2020
~2.3 Mt
stockpiled (US)
02 · Active
Flat Panels
2015–2025
6.5 yr
avg lifespan (was 9yr)
03 · Emerging
Solar Panels
2030–2050
78 Mt
global waste by 2050
04 · Fast growing
EV Batteries
2035–2050+
20.5 Mt
end-of-life by 2040
05 · Imminent
Windows 10 EOL PCs
From Oct 2025
240M
PCs at risk
06 · Continuous
Smartphones
~2.5yr cycle
~5B / yr
drop out of use
The next decade is critical. Solar panels, EV batteries, and software-obsoleted PCs will create unprecedented e-waste volumes. Infrastructure built today determines whether these become waste streams or resource streams. Plan for wave timing, not current volumes.
Primary source: UN Global E-Waste Monitor 2024 (ITU/UNITAR)
Methodology: E-waste projections use sales/lifespan models with Weibull distributions fitted to empirical EU data.

By category:
CRT — EPA RCRA, Electronics Recycling Clearinghouse
Flat Panel — GEM 2020/2024 (5.9Mt in 2022)
Solar — IRENA/IEA-PVPS End-of-Life Report
EV Batteries — UNDP Analysis (2025), IEA Global EV Outlook 2025
Windows 10 — Canalys Research (Dec 2023)
Smartphones — WEEE Forum/UNITAR (Oct 2022)

INTERACTIVE RESEARCH


By 2040, the world will need exponentially more lithium, cobalt, nickel, graphite, rare earths, and copper than it mines today. The forecasts vary but the direction doesn't. Three scenarios IEA STEPS, IEA Net Zero, and an AI-aware S&P/BNEF hybrid help to visualize the demand as it at scales.

NET ZERO SCENARIOS

YEAR
2024
01TODAY
SCENARIO
NET ZERO EMISSIONS · IEA 2024
VIEW
1 cube = 10% of each mineral's 2024 output
2024 TODAY SCROLL TO ADVANCE
WHAT'S HAPPENING
Today's demand. Every cube equals 10% of this year's global production. Copper is by far the biggest market by tonnage; lithium is tiny but about to sprint.
LITHIUM — KEY METRIC
STEPS
1.0×
240 kt/yr
NET ZERO
1.0×
240 kt/yr
S&P/BNEF
1.0×
240 kt/yr
SIGNALS TO WATCH
  • EV sales hitting 20% of new-car sales globally
  • Grid-scale battery installations breaking records quarterly
LITHIUM
EV & GRID BATTERIES
COBALT
BATTERY CATHODES
NICKEL
BATTERIES + STEEL
GRAPHITE
BATTERY ANODES
RARE EARTHSREE
MOTORS & MAGNETS
COPPER
GRIDS & WIRING
Sources & Methodology

Primary Sources

This visual draws on three forecasts. STEPS and NET ZERO are from the International Energy Agency's Global Critical Minerals Outlook (2024 and 2025 editions). The third scenario, S&P / BNEF, reflects more aggressive copper assumptions from S&P Global's January 2026 study and BloombergNEF's Transition Metals Outlook 2025, which incorporate AI/data-center and defense demand vectors that the IEA's energy-transition focus undercounts.

IEA Global Critical Minerals Outlook 2024
IEA Global Critical Minerals Outlook 2025
S&P Global: Copper in the Age of AI (Jan 2026)
BloombergNEF Transition Metals Outlook 2025

How the Two Views Work

Multiplier view sizes each cube as 10% of that mineral's 2024 production. This makes growth rates comparable across minerals — lithium's 9× pile towers over copper's 1.5× pile, capturing the "lithium sprint" narrative.

Absolute tonnage view uses a shared cube mass of 500,000 tonnes across all minerals. This shows the physical mining and refining build-out — copper towers, lithium nearly disappears. Both views are true; they tell different stories.

2024 Production Baselines

Absolute tonnage figures use 2024 mine production from the USGS Mineral Commodity Summaries 2025, rounded for legibility.

Mineral2024STEPS 2040NZE 2040S&P/BNEF 2040
Lithium 240 kt 1.2 Mt (5×) 2.16 Mt (9×) 2.16 Mt (9×)
Cobalt 240 kt 385 kt (1.6×) 480 kt (2×) 480 kt (2×)
Nickel 3.7 Mt 7.4 Mt (2×) 7.4 Mt (2×) 7.4 Mt (2×)
Graphite 1.8 Mt 3.6 Mt (2×) 7.2 Mt (4×) 7.2 Mt (4×)
Rare earths 350 kt 560 kt (1.6×) 700 kt (2×) 700 kt (2×)
Copper 23 Mt 30 Mt (1.3×) 34 Mt (1.5×) 42 Mt (1.83×)

Scenario Definitions

STEPS (Stated Policies, IEA) reflects only policies governments have actually implemented or legislated. It's "current trajectory."

NZE (Net Zero Emissions by 2050, IEA) is a normative scenario — it models the mineral deployment that would be required to hit the 1.5°C climate goal.

S&P / BNEF mirrors NZE on most minerals but uses S&P Global's January 2026 copper outlook of 42 Mt/yr by 2040, which adds four cumulative demand vectors: core economic growth, energy transition, AI/data centers, and defense.

Caveats

These are scenario projections, not forecasts. Actual 2040 demand will depend on battery chemistry shifts (LFP vs. NMC), recycling scale-up, EV adoption rates, AI infrastructure intensity, and policy settings. The S&P/BNEF scenario as constructed here is a hybrid: it uses S&P's copper number combined with NZE assumptions for other minerals, because no single forecaster publishes a fully harmonized "AI-aware" scenario across all six minerals.