Tire recycling isn’t a new idea. It’s been explored worldwide for decades — but making it work consistently has proven far more difficult than in other recycling streams.
At first glance, it seems like a simple solution: find used tires, transport them to a facility, and recycle them into valuable byproducts. But in practice, tire recycling efforts often lose momentum or stall out completely.
So where’s the disconnect between vision and reality? The answer lies in four common roadblocks seen across the industry.
Roadblock #1: Significant Upfront Costs Slow Early Progress
The first roadblock is capital. Beyond the cost of machinery, operations, and ongoing maintenance, tire processing and disposal can approach $200 per ton, leaving relatively little margin for error. That means even small delays or inefficiencies can quickly disrupt a project.
In many cases, getting a project off the ground requires substantial upfront funding, often reaching tens of millions of dollars, along with the time needed to secure financing, identify a viable site, and develop the necessary infrastructure. These early stages alone can take several years before a system ever becomes operational.
This level of investment requires operators to commit significant resources well before any return is realized, while also taking on long-term operational and financial risk. In practice, many projects rely on external funding or grants to move forward, particularly when the economics are not yet fully proven at scale.
As a result, many projects struggle to move forward.
Roadblock #2: Operational Complexity Makes Systems Difficult to Sustain
In other cases, the main challenge isn’t getting a system running. It’s keeping it running efficiently.
Maintenance is often underestimated in tire recycling. The machinery used to process used tires is historically complex and requires consistent attention and monitoring. If not treated properly, it can lead to significant operational downtime.
This creates ongoing operational challenges, where downtime and complexity can directly impact performance. Over time, even minor disruptions can compound, making consistent operation difficult to sustain.
Roadblock #3: Permitting Requirements Introduce Delays and Uncertainty
Permitting is another major source for delay. In tire recycling, how a system is designed directly affects how it’s regulated, often in ways that aren’t immediately obvious. Small design decisions or additional processing components can significantly change how a project is classified and regulated, resulting in more permits, longer timelines, and complex approval processes.
Uncertainties like this, even before a system ever operates, make it difficult for projects to maintain momentum and move forward as planned.
Roadblock #4: Distributed Tire Waste Makes Deployment More Complex
One of the most complex challenges in tire recycling is where and how systems are deployed.
Tire waste is unique in that it is often widely distributed due to its bulkiness and the fact that it’s expensive to transport. As a result, many tires end up in dumps or abandoned fields or ravines, taking up space and slowly degrading. Accessing these remote locations to transport tires back to a brick-and-mortar facility adds high costs.
Processing the tires isn’t the challenge – it’s getting to the material. In practice, operators often spend more time and resources moving material than actually processing it.
How These Problems Compound
When facing these problems all at once, these challenges reveal a pattern rather than one isolated issue. Each challenge reinforces another, creating delays and risk over time. Together, these constraints create a cycle where projects struggle to move from concept to consistent operation.
Designing for Reality
Across the industry, the pattern is consistent: capital is deployed, systems are developed, and real-world constraints like maintenance, permitting, and logistics begin to erode performance over time.
The challenge isn’t just building recycling systems. It’s designing them around how tire waste actually exists: distributed, difficult to access, and operationally demanding. These are the challenges we’ve set out to solve.
Until those realities are treated as core design requirements, projects will continue to stall. The next phase of the industry will depend on systems designed around those constraints from the start.