Document details

The Global E-Waste Monitor 2024

Bonn; Geneva: United Nations Institute for Training and Research (UNITAR);ITU (2024), 148 pp.

Contains illustrations, boxes, tables

ISBN 978-92-61-38781-5 (pdf)

CC BY-NC-SA

In 2022, a record 62 billion kg of e-waste was generated globally (equivalent to an average of 7.8 kg per capita per year); 22.3 per cent of this e-waste mass was documented as formally collected and recycled in an environmentally sound manner. In 2010, the world generated 34 billion kg of e-waste, an amount that has since increased annually by an average of 2.3 billion kg. The documented formal collection and recycling rate has increased as well, growing from 8 billion kg in 2010 at an average rate of 0.5 billion kg per year to 13.8 billion kg in 2022. The rise in e-waste generation is therefore outpacing the rise in formal recycling by a factor of almost 5 - driven by technological progress, higher consumption, limited repair options, short product lifecycles, growing electronification and inadequate e-waste management infrastructure - and has thus outstripped the rise in formal and environmentally sound collection and recycling. The e-waste generated in 2022 contained 31 billion kg of metals, 17 billion kg of plastics and 14 billion kg of other materials (minerals, glass, composite materials, etc.) An estimated 19 billion kg of e-waste, mainly from metals like iron which is present in high quantities and has high recycling rates in almost all e-waste management routes, were turned into secondary resources. Platinum-group metals and precious metals were among the most valuable metals but present in much lower quantities; nonetheless, an estimated 300 thousand kg were turned into secondary resources through formal and informal recycling practices.
The share of patent applications for e-waste management rose from 148 per million in 2010 to 787 per million in 2022. Most of those applications were related to technologies for cable recycling, with hardly any signs of an increase in the number of patents filed for technologies related to critical raw materials recovery. Although rare earth elements have unique properties that are crucial for future technologies, including renewable energy generation and e-mobility, the world remains stunningly dependent on the production chains of a few countries. The recycling of such elements remains economically challenging, even in the case of devices with a higher content. Consequently, recycling activities are taking only around 1 per cent of the current demand for the recycling of rare earth elements. The market price for rare earth elements is still too low to support larger-scale commercial recycling operations." (Executive summary, pages 12-13)
1 What is EEE and E-waste? 20
2 Methodology, 24
3 Key Global Statistics, 28
4 Transboundary Movements, 40
5 Legislation, 44
6 Recovery of Valuable and Critical Metals, 46
7 Treatment Technology Innovations, 50
8 Environmental Impact, 52
9 Economic Assessment, 54
10 Improvement Outlook from 2022 to 2030, 58
Africa, 64
Americas, 70
Asia, 78
Europe, 96
Oceania, 102
Global E-waste Statistics Partnership, 106
About the Authors, 107
Annex 1: Methodology Details, 108
Annex 2: Datasets, 118