A tyre recycling entrepreneur in North India had almost completed his project planning. The land was identified, machinery quotations were collected, electricity load was estimated, and the proposed recycling line was designed for around 30 tonnes of waste tyres per day.
On paper, the project looked strong.
Then one simple question changed the entire calculation:
Where will 30 tonnes of waste tyres come from every single working day?
The promoter had spoken with a few local scrap dealers, and everyone said waste tyres were “easily available”. But when the actual numbers were checked, the situation was different. One supplier could provide around 40 to 50 tonnes per month. Another had irregular availability. A third supplier quoted an attractive tyre price, but the material had to travel more than 300 km.
The proposed plant would need hundreds of tonnes every month.
Machinery was not the biggest problem. Feedstock security was.
This is one of the most important lessons for anyone planning a waste tyre recycling business in India. A recycling plant can have good machinery, experienced operators and a market for finished products, but if waste tyres cannot be procured consistently at a sustainable delivered cost, plant utilisation falls and the economics begin to change very quickly.
For this reason, waste tyre sourcing should be studied before finalising recycling plant capacity, machinery and financial projections.
India already handles waste tyres at a scale of millions of tonnes annually through recycling, retreading, material recovery and other authorised processing routes. This creates a large opportunity for recyclers, but it also means competition for good-quality feedstock is increasing.
A successful tyre recycling project therefore needs more than a list of scrap dealers. It needs a structured procurement strategy.
Most new recycling projects begin with machinery.
A promoter may search for a 10 TPD, 20 TPD or 50 TPD recycling plant and then build the financial model around that capacity.
The better approach is the opposite.
First estimate how much waste tyre can realistically be secured. Then decide what plant capacity that supply can support.
Consider a 20 TPD waste tyre recycling plant.
If the facility operates for 26 days every month, its theoretical requirement is:
20 tonnes x 26 days = 520 tonnes per month
However, a new recycling plant may not operate at 100% utilisation immediately. Suppose the first-year utilisation is planned at 80%.
The actual feedstock requirement becomes:
520 tonnes x 80% = 416 tonnes per month
That means the project needs approximately 4,992 tonnes of waste tyre per year at that level of utilisation.
This is where a casual statement such as “there are many tyre dealers in the area” is not enough.
The promoter needs to identify suppliers who can collectively support approximately 400 to 420 tonnes every month.
If only 200 tonnes are available at an economically viable cost, buying a 20 TPD plant may create excess capacity from the first year.
Waste tyre is not a standard industrial raw material that can always be ordered in a fixed specification from one manufacturer.
Supply is fragmented.
Tyres become waste at different locations and at different times. They come from commercial fleets, passenger vehicles, logistics companies, industrial users, tyre shops, retreaders, scrapping facilities, workshops and scrap aggregators.
The recycler therefore has to create a collection and procurement ecosystem.
For example, a tyre dealer may generate 5 tonnes per month while a large transport fleet may generate 20 tonnes or more. A regional scrap aggregator may provide 50 to 100 tonnes but demand higher prices because aggregation and transportation have already been added to the material.
No single source is necessarily better.
A strong procurement model usually combines several sources so that the plant is not dependent on one supplier.
Commercial vehicle fleets can be an important source because trucks, buses and logistics vehicles replace tyres regularly. Large fleet operators can also provide better predictability compared with small retail workshops.
Tyre dealerships and replacement centres offer another opportunity. Their individual quantities may be smaller, but a network of 20 or 30 dealerships can create a meaningful monthly supply base.
Retreading businesses are also relevant. A tyre suitable for another retreading cycle may continue to remain in use, while tyres rejected from further retreading may eventually enter the recycling chain.
Vehicle scrapping facilities can become another feedstock channel because tyres are removed during vehicle dismantling. The growth of organised Registered Vehicle Scrapping Facilities is gradually creating more structured material flows from end-of-life vehicles.
Scrap aggregators remain important because they collect material from many smaller generators. They can reduce the recycler’s collection effort, although the purchase price may be higher than direct procurement.
For many plants, the best model is a combination of direct procurement and aggregator procurement.
Direct sourcing can reduce cost, while aggregators help fill supply shortages when internal collection channels are not enough.
One of the most common mistakes in waste tyre procurement is comparing only the purchase price.
Suppose Supplier A offers tyres at a lower rate but is located 250 km from the plant.
Supplier B quotes a slightly higher rate but is located only 70 km away.
The second supplier may still be cheaper after transportation, loading, unloading and handling are calculated.
The number that matters is not simply the scrap purchase price.
It is the delivered waste tyre cost.
A simple project-planning formula is:
Delivered Cost = Purchase Cost + Collection Cost + Loading + Transportation + Unloading + Sorting + Handling + Other Procurement Costs
Even a small difference in delivered cost becomes significant when a plant consumes hundreds of tonnes every month.
Take the earlier 20 TPD plant requiring approximately 416 tonnes per month.
If changes in sourcing distance increase logistics cost by only ₹2 per kg, the monthly impact becomes:
416,000 kg x ₹2 = ₹8,32,000 per month
That is approximately ₹99.84 lakh per year.
A small mistake in logistics assumptions can therefore change project profitability by almost ₹1 crore annually in this illustrative case.
This is why feedstock cost deserves the same level of attention as machinery price.
There is no universal procurement radius that works for every plant.
A recycler located close to a major logistics hub may obtain significant quantities within 50 to 100 km. Another plant may need a 200 km or larger collection network.
The appropriate radius depends on tyre availability, local competition, road connectivity, truck utilisation and purchase price.
Instead of choosing an arbitrary number, the DPR should divide the sourcing area into procurement zones.
For example, the first zone may cover suppliers within approximately 50 km. The second may cover 50 to 150 km. The third may include strategic suppliers located further away.
The objective is to maximise the percentage of feedstock coming from the lowest-cost zones.
If 80% of the plant’s raw material must travel long distances, the site itself may need reconsideration.
This is why site selection and feedstock sourcing should be analysed together.
Consider an illustrative entrepreneur planning a 30 TPD tyre recycling plant.
The facility is expected to operate for 26 days each month.
At full utilisation, raw material requirement would be:
30 x 26 = 780 tonnes per month
If the first year is planned at 75% capacity utilisation, the requirement becomes approximately:
780 x 75% = 585 tonnes per month
Now assume the promoter identifies six suppliers.
Together they claim they can provide 650 tonnes every month.
That initially looks sufficient.
But during due diligence, it is discovered that 120 tonnes are already committed to another recycler, 80 tonnes fluctuate seasonally, and approximately 60 tonnes are located so far away that transport makes the material commercially unattractive.
The realistic supply falls to around 390 tonnes per month.
Instead of having excess supply, the proposed plant suddenly has a shortage of approximately 195 tonnes per month against its first-year requirement.
At this stage, the promoter has three practical options.
The plant capacity can be reduced, a larger sourcing catchment can be developed, or supply agreements can be secured before machinery is finalised.
This is exactly why a proper feasibility study should verify material availability instead of simply repeating market estimates.
Many recycling projects operate almost entirely through spot-market purchasing.
This provides flexibility, but it also exposes the plant to price volatility and supply shortages.
A better structure is to secure a base quantity through regular supplier relationships and use the spot market only for additional requirements.
For example, a 20 TPD plant requiring approximately 416 tonnes per month at 80% utilisation could aim to secure 250 to 300 tonnes through relatively stable suppliers.
The remaining quantity could then be sourced from aggregators or the open market.
This creates a more balanced procurement model.
A commercial supply arrangement should clearly define the material being supplied, approximate monthly quantity, delivery location, weighing method, payment terms, acceptable tyre condition and responsibility for transport.
It should also address what happens if supplied material does not meet the agreed condition.
The objective is not necessarily to create rigid long-term contracts with every small supplier.
The objective is to convert a portion of theoretical feedstock into reasonably predictable feedstock.
Waste tyre sourcing is not only a commercial issue.
It is also connected with environmental compliance and traceability.
A registered recycler should maintain proper records of the material received, suppliers, quantities, invoices, processing and sale of recovered outputs.
When a recycling business participates in an EPR framework, the relationship between physical material movement and documentation becomes even more important.
The recycler should be able to reconcile incoming waste tyre quantity with production and output records.
A simple internal material-control system may track:
Supplier invoice -> vehicle receipt -> weighbridge quantity -> raw material inventory -> processing quantity -> recovered output -> finished-product sale
For example, if records show that 500 tonnes of tyres entered the plant during a month, production records should reasonably explain how that quantity was processed, stored or carried forward.
Large unexplained differences can create both operational and compliance problems.
A recycler may feel comfortable after finding a supplier who promises 70% of the plant’s monthly requirement.
Commercially, that can actually be a risk.
If the supplier increases prices, loses access to material or signs an agreement with another recycler, plant utilisation may immediately fall.
A safer procurement model spreads feedstock across multiple sources.
For example, a 500 tonne monthly requirement might be divided between fleet operators, tyre markets, scrapping facilities, direct industrial suppliers and aggregators.
The exact percentage will vary from project to project.
What matters is avoiding extreme dependence on one source.
A plant with 10 suppliers contributing meaningful quantities may be more resilient than a plant with one major supplier and two emergency contacts.
Feedstock is not free simply because it is waste.
A large tyre recycling plant can require substantial working capital.
Suppose a plant consumes 500 tonnes per month and maintains only 15 days of feedstock inventory.
That represents roughly 250 tonnes of tyres sitting in storage before processing.
The business may have already paid the supplier and transporter before revenue from recycled products is received.
The cash cycle may include purchase, transportation, inventory holding, processing, finished-product storage and customer credit.
If customers are allowed 30 days to pay while suppliers demand payment within 7 days, the plant may need significant working capital even if its accounting profit appears attractive.
This becomes particularly important when feedstock prices increase.
A project that looks profitable at the EBITDA level can still face cash-flow stress if procurement funding has not been planned.
Entrepreneurs sometimes assume imported waste tyres can be used whenever domestic sourcing becomes difficult.
That assumption should be treated carefully.
Waste tyre imports are regulated, and the permitted route depends on the proposed recycling activity and applicable environmental and import requirements.
For pyrolysis projects in particular, imported waste tyres should not simply be included in a project report as an unrestricted raw-material source.
The safer approach is to prepare the core project economics using verified domestic feedstock availability.
Imported material, where legally permissible for the intended process, should be treated only after the specific regulatory route has been confirmed.
A financial model should never depend heavily on a raw-material channel that has not been legally and commercially validated.
Not every waste tyre has identical commercial value.
Tyre size, composition, contamination, steel content, moisture, condition and previous use can affect handling and recovery.
A plant producing crumb rubber may prefer a particular feedstock mix, while another recycler may have different requirements.
This means procurement teams should not focus only on tonnage.
They should understand what type of tyre each supplier provides.
If the machinery has been designed around a certain feedstock profile but procurement consistently supplies a different mix, processing efficiency and product quality may change.
Before signing large contracts, representative tyre samples should be evaluated against the planned recycling process.
Many feedstock problems can be identified before investment if the promoter performs a structured pre-project assessment.
Before finalising the DPR and machinery capacity, the project team should verify:
These checks can reveal project risks before large amounts are invested in civil construction and machinery.
A proper Detailed Project Report should not contain one line stating that waste tyres are “available locally”.
For a serious recycling investment, the DPR should estimate monthly feedstock requirement, identify the sourcing catchment, evaluate potential suppliers, calculate logistics cost, determine storage requirements and connect procurement assumptions with working capital.
For example, if the project is designed for 25 TPD, 26 working days would create a maximum monthly input requirement of 650 tonnes.
At 70% utilisation, approximately 455 tonnes per month would be required.
At 85%, the requirement rises to approximately 553 tonnes.
At full utilisation, it reaches the entire 650 tonnes.
These numbers immediately tell the promoter how large the sourcing network must become over the first few years.
The procurement plan can then expand along with plant utilisation.
This is much more realistic than assuming 100% capacity from the first month.
Waste tyre recycling is not only a machinery business.
It is a supply-chain business.
The plant earns money only when sufficient waste tyres arrive at the facility at a cost that allows recovered products to be sold profitably.
A recycling entrepreneur should therefore investigate feedstock before investing heavily in machinery.
For a 20 TPD facility, even an 80% utilisation plan may require more than 400 tonnes of waste tyres every month. A 30 TPD plant may require nearly 600 tonnes per month even at 75% utilisation.
Those quantities cannot be secured through assumptions.
They require supplier identification, catchment mapping, delivered-cost analysis, logistics planning, inventory management and procurement agreements.
The strongest waste tyre recycling projects are usually not the projects with the biggest machines.
They are the projects where plant capacity, waste tyre availability, procurement cost and product demand are designed together.
Green Permits supports entrepreneurs, recyclers and investors with waste tyre recycling plant DPRs, feasibility studies, raw-material sourcing analysis, financial modelling, pollution approvals, CTE and CTO planning and regulatory compliance.
A project study can help determine whether your proposed location and plant capacity are commercially practical before major investment is committed.
👉 Book a consultation with Green Permits to evaluate your waste tyre supply, project capacity, approvals and financial feasibility.
