Tire recycling refers to the process of collecting used or worn-out tires and converting them into useful materials or products instead of simply discarding them as waste. Because tires are made of durable, non-biodegradable materials (rubber, steel belts, textiles, additives), they persist in the environment if left unmanaged. To prevent environmental harm, reduce waste, and reclaim resources, tire recycling systems exist to handle end-of-life tires (ELTs).
Tires are often shredded, crushed, or chemically treated so that rubber, steel, fiber, carbon black, or energy can be recovered. The practice has grown alongside rising vehicle use and stricter waste management expectations.
Tire recycling matters for several interlinked reasons:
Discarded tires can collect stagnant water and become breeding grounds for mosquitoes, spreading diseases.
Stockpiled tires pose fire risks; once ignited, they burn for long durations and release toxic smoke.
Leachate or chemical runoff from tire dumps can contaminate soil and waterways.
Through recycling, valuable materials (rubber, steel, carbon black) can be reclaimed and reused.
It helps reduce reliance on virgin raw materials and lowers the environmental footprint of producing new rubber products.
Tires occupy significant space in landfills; recycling helps divert this burden.
Many countries aim to reduce landfill inputs and push for more sustainable waste streams.
Recycling supports jobs in collection, processing, transportation, and re-manufacturing sectors.
It stimulates innovation (e.g. devulcanization, pyrolysis) and new applications (rubberized asphalt, playground surfaces).
Because the number of vehicles globally continues increasing, the volume of end-of-life tires also grows, creating urgency for sustainable solutions.
The global tire recycling market in 2024 was estimated between USD 6.87 billion (per Grand View Research) and higher figures in other analyses, and is projected to grow further with a compound annual growth rate (CAGR) of about 3–4 %.
Some forecasts see the market rising to USD 19.24 billion by 2033.
Shredding or mechanical processes currently dominate, while pyrolysis and devulcanization are fast-emerging technologies because they allow chemical breakdown into oils, gases, and carbon black.
In the U.S., recent data showed that 79 % of end-of-life tires were being consumed by end-use markets (i.e. recycled or reused) in 2023–2024.
Recycled or “ground rubber” has seen stronger demand in infrastructure (rubberized asphalt, sound barriers, matting).
Many countries are tightening rules on Extended Producer Responsibility (EPR) for tires, making manufacturers and importers responsible for end-of-life tire collection and recycling.
In India, draft and emerging regulations (under the Hazardous and Other Wastes rules) are reinforcing EPR mandates for tyres.
India has placed explicit bans on importing waste tires for pyrolysis and clarified that “imported tyres shall not be used for TPO (tyre pyrolysis oil) production.”
The Central Pollution Control Board (CPCB) manages a portal for waste tyre regulation and EPR certificate issuance.
These shifts emphasize accountability, traceability, and environmental safeguards in tire recycling systems.
The legal framework for tire recycling varies by country. Below is an illustrative focus on India, but many lessons generalize elsewhere.
Under the Environment (Protection) Act, 1986, and later Hazardous & Other Wastes (Management & Transboundary Movement) Rules, 2016, used tires are included in regulated waste streams.
The Amendment Rules, 2022 introduced specific mandates for Extended Producer Responsibility (EPR) for waste tyres.
Under EPR, tyre producers and importers must:
• Register with CPCB (or relevant authority)
• Plan and carry out collection, transportation, recycling, or disposal of end-of-life tires
• Procure EPR certificates from registered recyclers to show compliance
• Submit quarterly and annual compliance reports to regulatory bodies
The CPCB’s official Waste Tyre portal handles data submissions and issuance of EPR certificates.
The Standard Operating Procedure (SOP) for tyre recycling, published in January 2024, sets rules for recycling units, prohibits use of imported tyres for pyrolysis, and outlines operational norms.
Recently (August 2025), India clarified import rules: waste tire import is stopped and production of pyrolysis products from imported tyres is disallowed.
In the U.S., state-level laws (e.g. in California, Michigan) require recycling fees, deposit systems, or take-back arrangements.
The European Union has directives on waste tires (e.g. the Waste Framework Directive and End-of-Life Vehicles Directive) that set targets for reuse and material recovery.
Some countries implement landfill bans on whole tires or promote incentives for recycled tire use in road construction.
Regulations often aim to ensure the environmental integrity of recycling operations, reduce illegal dumping, and promote viable circular markets.
Here are useful tools, platforms, frameworks, or reference resources related to tire recycling:
Waste Tyre Portal (India, CPCB) – For EPR data reporting and certificate issuance.
Standard Operating Procedure (SOP) for Recycling of Waste Tyres (CPCB, Jan 2024) – Technical and regulatory guidelines.
Industry & Market Reports – Grand View Research, MarketsandMarkets, Stratview, Business Research Insights provide data, forecasts, and segmentation.
USTMA End-of-Life Tire Management Report – U.S. industry data on recycling rates and consumption trends.
Recykal / Recykal blog – For insights on EPR compliance in India.
Academic and technical journals on devulcanization, pyrolysis technology, rubber reclamation for deeper technical study.
International organizations such as the International Solid Waste Association (ISWA) or UNEP publish guidelines and case studies on tire waste management.
These resources help you understand regulations, technical pathways, market dynamics, and best practices.
What is the difference between mechanical and chemical recycling of tires?
Mechanical recycling (shredding, grinding) breaks tires into pieces, crumb rubber, fiber, and steel, which are then used in rubber blends, paving, matting, or molded products.
Chemical recycling (e.g. pyrolysis, devulcanization) breaks chemical bonds (like sulfur crosslinks) to recover oils, gases, carbon black, or reclaimed rubber. It often requires higher energy and stricter controls but can yield purer outputs.
Are all tires recyclable?
Most passenger and industrial vehicle tires can be recycled. However, challenges include mixed materials, contamination, damage, or small sizes (e.g. bicycle tires) which may reduce economic viability.
Does tire recycling reduce carbon emissions?
Recycling tires often consumes less energy than producing equivalent virgin materials. When used as fuel substitutes (e.g. Tire-Derived Fuel, TDF) or in asphalt, they can displace fossil inputs. However, some processes (especially high-temperature ones) produce emissions and must be controlled to avoid net harm.
What is an EPR certificate and how does it work?
An EPR certificate is a document that proves a producer or brand has arranged for collection and recycling of a certain volume of end-of-life tires. Producers must acquire these certificates from compliant recyclers to show regulatory compliance under EPR schemes (as in India).
Why is pyrolysis of tires controversial?
Although pyrolysis can recover energy and materials, it must be done carefully. If emissions are uncontrolled, it risks releasing harmful gases or pollutants. Also, using imported waste tires for pyrolysis is increasingly restricted in some jurisdictions to prevent environmental dumping. (E.g. India’s ban on using imports for pyrolysis)
Tire recycling is a vital piece of sustainable waste management. It transforms problematic end-of-life tires into materials or energy, mitigates environmental risks, and contributes to circular economy goals. As vehicle use and tire waste continue to grow globally, effective recycling systems gain urgency.
On the technical front, mechanical methods are mature and widely used, while chemical routes like pyrolysis or devulcanization offer promising innovation—if managed safely. From a policy standpoint, instruments like Extended Producer Responsibility (EPR) are increasingly central to ensuring accountability and closing the loop.