Circular Economy Research: DPP, Recycling, Repair & Material Recovery

For most of the industrial economy, the sale has traditionally marked the end of the manufacturer's responsibility for a product.

Circularity changes that assumption.

A battery may return as lithium, nickel and graphite. A vehicle can become a source of motors, electronics, steel, aluminium and reusable components. A plastic bottle can become feedstock rather than waste. An industrial water stream can be treated and circulated back into production. A solar module installed today eventually becomes a future source of glass, aluminium, silicon and other recoverable materials.

The commercial question is therefore shifting from “How do we dispose of this product?” to “How much value can we keep in circulation after its first use?”

That is a much larger market than recycling alone.

DataM Intelligence's Circular Economy research follows the technologies, regulations and business models developing around repair, reuse, refurbishment, remanufacturing, recycling, reverse logistics, product traceability, secondary materials and resource recovery.

2026 Is Turning Circularity Into an Operating Requirement

Circular economy policy has existed for years. What is different in 2026 is that several concepts are moving from policy language into actual operating systems.

The timing is particularly important in Europe.

The EU Digital Product Passport Registry went live on July 20, 2026, providing the infrastructure for registering unique product identifiers and metadata associated with Digital Product Passports. The system will support product groups including textiles, steel, aluminium, tyres, furniture, ICT products, batteries and construction products.

The EU's right-to-repair rules reached their national transposition deadline on July 31, 2026, strengthening the framework for repairable products and giving repair a more formal position within product lifecycle strategy.

And from August 12, 2026, the EU Packaging and Packaging Waste Regulation generally begins to apply, increasing the importance of packaging minimization, recyclability, reuse and recycled content across companies selling packaged goods into Europe.

These are not isolated sustainability initiatives.

Together they point toward a different industrial model: companies increasingly need to know what is inside a product, how long it can remain useful, how it comes back, and what happens to its materials afterward.

The World Still Has a Material-Retention Problem

The latest Circularity Gap Report benchmark found that only 6.9% of materials entering the global economy were secondary materials, based on 2021 material flows. That share had fallen compared with 2018, despite growing corporate and policy attention to circularity.

That gap explains why this market remains commercially significant.

DataM Intelligence estimates the global Circular Economy Market at USD 166.95 billion in 2025 and projects it to reach USD 491.35 billion by 2035, representing an 11.4% CAGR during 2026–2035.

But the bigger opportunity is not simply processing more waste.

It is preventing products and materials from losing value in the first place.

Where Does Value Escape From a Linear Product?

A useful way to understand the circular economy is to follow a product and identify every point where usable economic value is normally lost.

Loss Point 1: The Product Was Never Designed to Come Back Apart

Circularity starts before manufacturing.

Products that are difficult to disassemble, repair or separate into clean material streams can become expensive to recover at end of life.

Design decisions therefore influence the economics of recycling years later.

Fasteners, adhesives, coatings, material combinations, battery placement, component standardization and access to replacement parts can determine whether something can be repaired, refurbished or recycled economically.

The EU Ecodesign for Sustainable Products Regulation reflects this shift by enabling requirements around durability, repairability, recycled content, resource efficiency and recyclability.

This changes the role of product designers.

They are no longer designing only for manufacture and use.

Increasingly, they must also design for disassembly, recovery and another life.

Loss Point 2: Nobody Knows What Is Inside

A recycler receiving a complex product years after it was manufactured may have limited information about its materials, chemicals, components or repair history.

That information gap destroys value.

A component that could be reused may be shredded.

A valuable alloy may be mixed into a lower-grade material stream.

A recycler may not know which polymer it is processing.

A repair company may not know which replacement part is compatible.

This is why the Digital Product Passport is strategically important.

The Digital Product Passport Gives Materials a Memory

A Digital Product Passport connects a physical product with structured digital information.

The EU's registry infrastructure launched on July 20, 2026. The European Commission says the system is intended to support supply-chain transparency, product information and regulatory compliance, with registrations possible through user interfaces or APIs.

The commercial consequences extend much further than regulatory reporting.

Product-level data can support:

repair instructions,
material identification,
component provenance,
recycled-content documentation,
disassembly guidance,
maintenance histories,
product authentication,
reuse decisions,
and end-of-life handling.

DataM's Digital Circular Economy Market research already covers lifecycle-management software, material-traceability platforms and sustainability-data systems. Software currently contributes more than 60% of that market's revenue according to DataM's latest analysis.

That report should become one of the flagship assets on this cluster.

Circularity is increasingly a data problem before it becomes a recycling problem.

Loss Point 3: A Repairable Product Is Replaced

Recycling receives much of the attention around circular economy, but recycling generally destroys some of the value already invested in manufacturing a finished product.

If a washing machine motor can operate for another five years, preserving the motor is usually a higher-value circular action than breaking it into copper, steel and plastic.

This is why repair, refurbishment and remanufacturing matter.

The EU right-to-repair framework requires manufacturers to provide repair for certain products that are technically repairable under EU rules and includes mechanisms intended to make repair services easier for consumers to access.

That strengthens several markets simultaneously:

spare parts,
repair services,
diagnostics,
refurbished electronics,
remanufactured industrial components,
reverse logistics,
and aftermarket platforms.

The Circular Economy Has a Value Hierarchy

Not every circular action preserves the same amount of economic value.

Consider an industrial electric motor.

Reuse the motor, and most of its manufactured value remains.

Refurbish the motor and much of that value remains.

Remanufacture it and significant component value remains.

Recycle it, and value falls largely to its copper, steel, and other material content.

Dispose of it and nearly all remaining value is lost.

That hierarchy should influence investment decisions.

The future circular economy will not be built only by recyclers.

It will also be built by businesses that become better at keeping products useful before they become waste.

Loss Point 4: The Product Never Finds Its Way Back

Even a highly recyclable product has little circular value if nobody collects it.

That turns reverse logistics into essential infrastructure.

Companies need systems for:

take-back,
collection,
sorting,
consolidation,
transport,
inspection,
diagnostics,
refurbishment,
and routing to appropriate recyclers.

Extended Producer Responsibility regulations are accelerating this shift by placing greater responsibility for post-consumer products and packaging onto producers and producer organizations.

In practice, this means the outbound supply chain increasingly needs a mirror image.

Factory → distributor → retailer → customer

is joined by:

customer → collection → sorting → reuse/refurbishment/recycling → secondary material → manufacturer

The second chain is often much less efficient than the first.

That inefficiency is an investable market.

Batteries Are Becoming the Model for Closed-Loop Manufacturing

Few products illustrate the circular economy as clearly as batteries.

EV and energy-storage growth increases demand for lithium, nickel, cobalt, graphite, manganese and other materials. At the same time, batteries eventually create a concentrated stream of valuable end-of-life material.

This gives recycling both an environmental and a supply-security role.

DataM Intelligence estimates its Circular Economy in Battery Recycling Market at USD 29.14 billion in 2025, reaching USD 62.25 billion by 2033. The market spans mechanical processing, pyrometallurgy, hydrometallurgy and direct recycling.

But the battery loop includes more than recycling.

A useful circular battery model looks like:

Battery materials → cell → pack → EV/energy storage → diagnostics → second-life use → recycling → recovered material → new battery

That makes battery health diagnostics, second-life assessment and reverse logistics strategically important alongside metallurgical recovery.

Regulation Is Increasing the Value of Recovered Battery Materials

The EU Batteries Regulation is introducing requirements around recycling efficiency, material recovery, recycled content and product information. EU rules set material-recovery targets for 2027, including 90% for cobalt, copper, lead and nickel and 50% for lithium.

The framework also introduces battery passport requirements for relevant batteries, with the first DPP implementation deadline identified by the Commission for certain large batteries on February 18, 2027.

For battery recyclers, this makes traceability and recovery quality increasingly important.

The winning business will not simply be the one that processes the most tonnes.

It will be the one that returns high-quality battery materials back into battery manufacturing.

Plastics Have a Quality Problem, Not Only a Collection Problem

Plastic circularity is one of the most difficult parts of the circular economy.

Collecting plastic is not the same as producing a recycled resin capable of replacing virgin material in a demanding application.

Color, contamination, odor, additives, polymer mixing, and material degradation all affect the value of recycled output.

This creates a major difference between recycling volume and circular material quality.

PCR Plastic Is Becoming a Procurement Market

DataM Intelligence estimates the global Post-Consumer Recycled Plastic Market at USD 13.1 billion in 2025 and USD 30.0 billion by 2033. Packaging, construction, automotive and other industries are increasingly evaluating recycled resin as an input rather than simply as an environmental attribute.

The challenge is consistency.

Brand owners need recycled materials that meet specifications for performance, color, safety, processing and traceability.

That creates value for companies capable of supplying application-grade secondary materials, not simply mixed recycled output.

Advanced Recycling Has to Solve What Mechanical Recycling Cannot

Mechanical recycling remains important because it can preserve polymer value without breaking the material back into chemical building blocks.

But mixed, contaminated or difficult plastic streams can create limitations.

Advanced recycling technologies-including depolymerization, pyrolysis and other chemical processes-are being developed to address feedstocks that are difficult to recycle mechanically. DataM already carries dedicated Advanced Recycling Technologies and Advance Recycling & Circularity research.

The real commercial test will be straightforward:

Can these technologies consistently produce valuable output at an energy, feedstock, and operating cost that supports industrial-scale economics?

Circular economy content should acknowledge that question rather than automatically presenting every recycling technology as equally mature.

Packaging Enters a New Regulatory Phase in August 2026

Packaging is one of the most immediate circular-economy opportunities because of its enormous volume and short useful life.

The EU Packaging and Packaging Waste Regulation entered into force in February 2025 and generally applies from August 12, 2026.

The regulation addresses packaging reduction, recyclability, recycled content and reuse while seeking to reduce packaging waste across the European market.

For packaging companies and consumer brands, the design question is changing.

It is no longer enough to ask:

Can we make this package lighter?

Companies increasingly need to ask:

Can it be recycled in real collection systems?

Does it contain enough recycled content?

Can labels, closures and coatings interfere with recovery?

Can the package be reused?

Can the company obtain enough suitable PCR material at the required quality?

Can the recycled-content claim be documented?

Those questions create opportunities across recycled polymers, mono-material packaging, fiber packaging, reusable packaging systems, material identification and recycling technology.

This is where DataM's PCR Plastic, Recycled Plastic, Bioplastics, Green Packaging and Sustainable Packaging Coatings research becomes commercially relevant to the cluster.

Electronics Are Becoming Urban Mines

Discarded electronics contain materials that once had to be extracted, refined and transported through global supply chains.

Copper, gold, silver, palladium and other valuable materials can therefore make discarded electronics a secondary resource base.

DataM's Electronic Waste Recycling research identifies valuable-material recovery and growing EPR regulation as important commercial drivers for the market.

But electronics circularity should extend beyond shredding devices for metals.

The stronger hierarchy is:

repair → resale → refurbishment → component harvesting → material recycling

A functioning electronics circular economy therefore creates opportunity for businesses in:

device diagnostics,
refurbishment,
certified data erasure,
parts harvesting,
take-back services,
asset disposition,
automated disassembly,
and materials recovery.

When product information becomes easier to access through digital passports, some of those activities could become substantially more efficient.

Textiles Are Moving From Collection to Fiber-to-Fiber Circularity

Used clothing has historically been collected, exported, downcycled, or discarded.

True textile circularity requires something more difficult: turning old textiles into feedstock suitable for manufacturing new textiles.

DataM Intelligence values the global Circular Textiles Market at USD 42.86 billion in 2025 and projects USD 107.38 billion by 2035. Its latest analysis identifies chemical recycling as the fastest-growing technology segment.

The challenge is material complexity.

A garment may contain polyester, cotton, elastane, dyes, coatings, zippers, buttons, labels and stitching materials.

That makes automated identification and fiber separation crucial.

Circular textile markets are therefore developing around:

fiber sorting,
recycled polyester,
cellulosic recycling,
chemical separation,
resale platforms,
repair,
garment take-back,
and fiber traceability.

Europe is also moving against deliberate product destruction. In February 2026, the European Commission adopted rules supporting the ESPR prohibition on destruction of unsold apparel and footwear, subject to specified exemptions.

Circular Textiles Market should be added prominently to this cluster.

It is currently absent from the live report catalogue despite being an unusually strong thematic fit.

Renewable Energy Has an End-of-Life Economy Too

Clean technology does not automatically mean circular technology.

Solar panels, batteries, wind turbines and other energy assets eventually reach end of life.

The first large waves of renewable-energy deployment are therefore creating future recovery markets.

Solar Panels Are Becoming a Secondary-Material Opportunity

Solar modules contain glass, aluminium, silicon, copper and smaller quantities of higher-value materials.

DataM Intelligence estimates the Solar Panel Recycling Market at USD 544.46 million in 2026 and USD 1.67 billion by 2035. Asia-Pacific is identified as the fastest-growing region.

The economics remain challenging because much of a solar module consists of relatively low-value glass and because collection and processing costs can be significant.

That creates a useful commercial question:

How much material value can recycling technology recover without making the process more expensive than the materials recovered?

This is precisely the kind of technology-versus-economics question a market-intelligence hub should help users investigate.

Water Can Be Circular Even When the Product Is Not

Circularity is often discussed through solid materials.

Industrial water deserves equal attention.

Factories use water for cooling, washing, processing, boilers, chemicals and other operations. Treating wastewater and returning it to production can reduce dependence on freshwater supplies while also lowering discharge volumes.

DataM Intelligence values the Industrial Water Reuse and Recycling Market at USD 19.20 billion in 2025 and projects USD 49.13 billion by 2035.

Technologies include membrane filtration, chemical treatment, biological treatment and zero-liquid-discharge systems.

This gives DataM an opportunity to frame circular economy around resource circulation, not only waste recycling.

In water-constrained industrial regions, water reuse can become a production-resilience issue as much as an environmental one.

Circularity Is Becoming a Raw-Material Security Strategy

A recovered material is not merely waste diverted from landfill.

It can also be a domestic source of industrial feedstock.

That distinction is becoming strategically important for batteries, electronics, aluminium, steel and other material-intensive industries.

Europe's forthcoming Circular Economy Act is explicitly intended to strengthen the Single Market for secondary raw materials, increase the supply of high-quality recycled materials and stimulate demand for those materials. The initiative is due for adoption in 2026; as of August 7, it should still be described as forthcoming rather than enacted.

That reveals an important change in policy thinking.

Circular economy is increasingly connected not only with reducing waste, but with:

resource security,
industrial competitiveness,
critical-material supply,
trade resilience,
and reduced dependence on virgin-material imports.

Battery recycling is a particularly clear example because recovered lithium, nickel and cobalt can re-enter strategically important battery supply chains.

The Secondary-Materials Market Has to Behave Like a Real Materials Market

A circular economy cannot scale if manufacturers are required to buy recycled materials that are inconsistent, poorly documented or more difficult to process than virgin alternatives.

The secondary-material market therefore needs many of the same characteristics as a conventional industrial-material market:

consistent specifications,
predictable supply,
competitive pricing,
certification,
traceability,
quality assurance,
and reliable logistics.

This is where the next phase of circularity becomes commercial rather than philosophical.

The objective is not simply to produce more recycled material.

It is to produce secondary materials that manufacturers actively want to buy.

That shift-from recycling supply to secondary-material demand-is likely to be one of the defining circular-economy issues of the second half of this decade.

Rebuild the Circular Economy Research Library Around the Return Journey

The current page contains strong research, but the reports should not appear as one continuous list. The buyer should be able to follow the journey of a product after its first use.

Keep Products in Use

Feature research around:

Circular Economy Market
Circular Economy in Automotive Market
Circular Textiles Market

This section should focus on reuse, repair, refurbishment, remanufacturing, and product-life extension rather than recycling alone. DataM estimates the Circular Economy in Automotive Market at USD 34.32 billion in 2025 and USD 84.20 billion by 2033.

Know the Product & Track the Material

Lead with:

Digital Circular Economy Market

This should become a major flagship topic because Digital Product Passports, traceability, lifecycle data, and circular-economy software represent a distinct high-growth technology layer.

Recover Critical Materials

Feature:

Circular Economy in Battery Recycling Market
Circular Battery Economy Market
Electronic Waste Recycling Market
E-Waste Management Market
Aluminum Recycling Market
Non-Ferrous Metals Recycling Market
Tungsten-Based Materials Recycling Market

This collection should explicitly connect recycling with material security and industrial supply chains.

Close the Plastics Loop

Feature:

Plastic Recycling Market
Post-Consumer Recycled Plastic Market
Recycled Plastic Market
Advance Recycling & Circularity Market
Advanced Recycling Technologies Market

Keep biodegradable plastics and bioplastics as an adjacent Alternative Materials collection rather than mixing them directly with recycling. A biodegradable material is not automatically a circular material; the end-of-life system still matters.

Build Circular Packaging Systems

Feature:

Green Packaging Market
Sustainable Packaging Coatings Market
PCR Plastic Market
Bioplastics Market

Tie this section directly to PPWR, recycled-content availability, reuse models, and design for recycling.

Recover the Clean-Energy Economy

Feature:

Solar Panel Recycling Market
Battery Recycling research
Renewable-energy component recycling research

This pathway helps distinguish the circular economy from energy transition by focusing on what happens to clean technologies after their first operating life.

Circulate Industrial Water

Feature:

Industrial Water Reuse and Recycling Market
Industrial Wastewater Treatment Market
Wastewater Treatment Services Market

This expands circularity beyond solid waste and connects resource efficiency directly with industrial operations.

Circular Economy Questions Businesses Are Asking in 2026

Is circular economy just another term for recycling?

No. Recycling is one circular strategy, usually applied near the end of a product's life. Circular economy also includes reducing material use, maintaining products, repair, reuse, refurbishment, remanufacturing, product-as-a-service models and designing products so materials can circulate more effectively.

What is a Digital Product Passport?

A Digital Product Passport is a structured digital record associated with a physical product. It can contain information useful for product identification, compliance, lifecycle management and circular-economy activities. The EU Digital Product Passport Registry launched on July 20, 2026.

Which products will use EU Digital Product Passports?

The EU registry is designed to support products covered by the ESPR and other relevant legislation, including groups such as textiles, steel, aluminium, tyres, furniture, ICT products, certain batteries and construction products. Specific product requirements will be introduced according to applicable legislation and product rules.

What is Extended Producer Responsibility?

Extended Producer Responsibility places responsibility on producers for aspects of managing products or packaging after use. Depending on the jurisdiction and product category, obligations can include financing collection, recycling, reporting or participation in producer-responsibility systems.

Why is August 12, 2026 important for packaging companies?

The EU Packaging and Packaging Waste Regulation generally begins applying on August 12, 2026. The regulation strengthens the framework around packaging waste prevention, recyclability, recycled content and reuse.

What is the difference between mechanical and chemical recycling?

Mechanical recycling generally sorts, cleans and reprocesses material while retaining the basic polymer structure. Chemical or advanced recycling can break polymers into smaller chemical components or feedstocks that may be used to produce new materials. The appropriate process depends on material type, contamination, product requirements and economics.

Why is battery recycling becoming strategically important?

Battery recycling can recover materials including lithium, nickel, cobalt and other inputs needed for new batteries. That means recycling can support both waste management and raw-material supply security.

What does right to repair have to do with circular economy?

Repair extends product life and preserves more manufactured value than immediately recycling or disposing of a product. EU member states faced a July 31, 2026 deadline to transpose the EU right-to-repair rules into national legislation.

What industries have the biggest circular-economy opportunities?

Important markets include packaging, plastics, batteries, automotive, electronics, textiles, construction materials, renewable-energy equipment, industrial water and metals. The opportunity differs significantly because each material has different collection, recovery, quality and reuse economics.

How does AI support recycling and circularity?

AI can support automated sorting, material recognition, asset tracking, lifecycle analytics, demand forecasting for secondary materials and optimization of collection or recycling systems. Digital circular-economy platforms are also becoming important for product traceability and sustainability information.

Why are secondary raw materials important?

Secondary raw materials are recovered materials that can replace part of the demand for virgin resources. They can reduce waste while also improving material security and diversifying supply. Europe's forthcoming Circular Economy Act specifically aims to strengthen the market for high-quality secondary raw materials.

What is the biggest challenge preventing a truly circular economy?

One of the largest challenges is making recovered products and materials economically competitive at consistent quality and scale. The latest global benchmark found that only 6.9% of material inputs were secondary materials, highlighting how far current economic systems remain from closed material loops.