The e-waste challenge goes beyond just an environmental issue. It’s an innovation gap.
Approximately 280 million new PCs (laptops and desktops) and 1.25 billion smartphones were shipped globally last year alone. With annual shipments hovering at similar levels over the past few years, the devices they replace are also accumulating. As technological transformation continues, the resulting surge of once-used electronics is expected to exceed 180 billion pounds by 2030.
With electronic waste (e-waste) constituting the fastest-growing waste stream on the planet, a multi-pronged approach to environmental sustainability is critical. Yet, from a corporate technology perspective, that approach must do more than give a nod to recycling. It must unlock both sustainability and business value through innovative approaches in device manufacturing and reuse that not only ensure security, but match the pace of turnover.
The official theme of Earth Day 2026, “Our Power, Our Planet,” highlights how individual, community, and collective actions can drive environmental progress. As organizations worldwide continue to manage large volumes of laptops, mobile phones, high-capacity drives, and other devices in emerging categories, including wearables, there is a collective duty as corporate citizens to minimize e-waste’s environmental impact around the globe.
Innovation Is Happening, But More Can Be Done
Various e-waste sustainability tactics have taken hold in mindsets and adoption, including the recycling of enterprise technology. Components are harvested from used devices and leveraged to repair others. Plastics, metals, and rare earth elements are extracted and repurposed. But while regulations govern proper disposal to prevent industrial toxins from leaching into soils and waterways, only 22.3% of used devices are responsibly recycled, according to the UN’s Global E-waste Monitor.
Many devices are still very difficult and costly to recycle, and the hardware industry has taken notice.
From a design and manufacturing perspective, some innovative businesses are choosing to build devices to last longer and be repaired in flexible ways. For instance, the Framework Laptop enables users to swap out RAM, storage, and ports without replacing the whole device. Mainstream manufacturers are also leaning into modular design for parts replacements, particularly with consumer devices.
Yet in business environments, where tens of thousands of devices can be retired at a time, scale, immediacy, and economics are paramount. By collaborating with partners and customers within their ecosystem, enterprises can drive device circularity both within their operational footprint and in their communities. Because recycling moves devices out of use, business leaders that employ that tactic prematurely are discarding costly, functional technology on a grand scale. And, while market drivers and technological advances increasingly raise enterprise hardware costs across the business, that loss becomes harder to ignore.
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The Bottleneck of Speed to Reuse
A key business constraint in circularity is how quickly devices can move from first use to next use. At enterprise scale, delays in processing erode value from even the most premium of hardware. As technology continues to advance, yesterday’s tech depreciates, meaning storage, transport, and manual processes eat away at lifetime capability and, if resold, profitability. By contrast, organizations that enable rapid redeployments put time and value on their side, lessening cost and maximizing return on their original technology investment.
For instance, even if handled in-house, traditional IT processing methods like sanitizing, diagnosing, re-imaging often require significant manual intervention, slowing the path to reuse. Recognizing these bottlenecks, organizations are increasingly turning to automation and high-throughput processing solutions to accelerate device turnaround. In one example, pairing software with an industrial hub increased Apple Mac device processing dramatically from just a handful per hour to dozens, illustrating how quickly throughput can scale when manual intervention is reduced. For larger projects, such as data center moves and de-commissionings, automation and scalability deliver not only time savings, but operational agility.
For businesses, scalable device processing equips other uses, departments, or employees with needed kit as soon as possible. And, if devices can no longer be used in-house, organizations can extract greater value from resale or advance ESG initiatives through charitable donations.
Across their tech environments, organizations that look for opportunities to reclaim high-value hardware from premature destruction minimize landfill impact, reduce the need for new raw materials, and lower CO2 emissions from new device manufacturing. They also slow down purchasing costs as they securely redeploy 2-3 year-old devices to less demanding areas of the business.
Security Innovation As Value Creator
Even when clear value opportunities exist, businesses remain cautious about redeploying devices, primarily due to concerns about unintended data exposure. Device destruction has long been an accepted way to mitigate that risk, often feeding downstream recycling. Yet even when paired with recycling, physical destruction short-circuits the value those devices hold.
In our 2025 commissioned study with Coleman Parkes, enterprises reported destroying more than a third of their computers and mobile devices (despite 32% of laptops/desktops and 42% of mobile phones still being fully functional).
At the same time, technology advancements are reshaping what secure destruction actually achieves. As data becomes more densely stored, traditional methods like shredding and crushing may not consistently eliminate all data on modern drives. IEEE 2883-2022 reflects this reality, cautioning that these approaches must be carefully matched to device type and, in some cases, supplemented by more rigorous techniques. Just as importantly, the standard also highlights alternatives pointing to data sanitization methods that can remove risk while preserving device value.
At scale, these approaches can do more than eliminate data; they can verify outcomes and enable faster redeployment, aligning security with both speed and reuse.
For devices that no longer hold value, recycling remains a critical end-of-life solution. But for functional equipment, the opportunity lies in moving beyond a recycle-first or destroy-first mindset—keeping devices in circulation longer while maintaining data security.
Reimagining the End of Life for Electronics
Functional electronic devices can, more often than not, be responsibly and securely refurbished, reused, and kept out of landfills long before they reach the point of parts and component recycling. The challenge is not capability, but execution. Without faster, more efficient pathways to redeploy technology, organizations risk losing both value and opportunity with every idle device.
Addressing the e-waste crisis will require more than good intentions. It will depend on how effectively businesses adopt innovative practices across the device lifecycle. The necessity is prioritizing speed, security, and reuse as core operational imperatives.
