Deep dive: Deposit return schemes & packaging reuse — the fastest-moving subsegments to watch

Deposit return schemes (DRS) collected an estimated 145 billion beverage containers globally in 2025, achieving average return rates of 85 to 93% in mature markets compared to 30 to 45% in curbside-only recycling systems. But the most compelling developments in this sector are not happening in the traditional bottle deposit programs that have operated in Northern Europe for decades. Instead, the fastest-moving subsegments span digital deposit infrastructure, reusable packaging logistics in the Asia-Pacific region, and AI-driven reverse vending technology that is collapsing the cost barriers that previously made DRS uneconomical in emerging markets.

Why It Matters

Global packaging waste generation reached 380 million metric tons in 2025, with only 14% entering closed-loop recycling streams. The remaining 86% is landfilled, incinerated, leaked into natural environments, or downcycled into lower-value applications. Beverage containers alone account for approximately 40 billion units of plastic and aluminum packaging entering oceans annually, according to the Ellen MacArthur Foundation. Deposit return schemes represent the single most effective policy mechanism for capturing post-consumer packaging at high purity, providing feedstock for genuine circular material flows rather than the contaminated, low-grade streams that curbside collection typically produces.

Regulatory acceleration is reshaping the landscape across the Asia-Pacific region and beyond. Australia completed national DRS rollout with Victoria's launch in November 2023, joining existing schemes in South Australia, New South Wales, Queensland, the Northern Territory, Western Australia, the ACT, and Tasmania. India's draft Extended Producer Responsibility (EPR) rules under the Plastic Waste Management Amendment of 2024 include provisions for deposit-based collection in urban centers exceeding 1 million population. South Korea expanded its deposit scope to include all PET and aluminum containers regardless of volume in 2025. Japan's Ministry of the Environment initiated a DRS feasibility study covering the country's 49 billion annual beverage containers. Meanwhile, the EU's Packaging and Packaging Waste Regulation (PPWR) mandates that member states without existing schemes achieving 90% collection rates must implement DRS by January 2029.

For procurement professionals, these shifts create both obligations and opportunities. Organizations sourcing packaging materials face rising recycled content mandates (the EU requires 30% recycled content in PET bottles by 2030 and 10% in all other plastic packaging). High-quality DRS feedstock commands 30 to 50% price premiums over curbside-collected recyclate, making access to DRS material a competitive procurement advantage.

Key Concepts

Deposit Return Schemes (DRS) require consumers to pay a small deposit (typically $0.05 to $0.25 or equivalent) when purchasing a beverage in qualifying packaging. The deposit is refunded when the empty container is returned to a designated collection point. The financial incentive drives return rates of 85 to 95% in well-designed systems, compared to 30 to 50% for voluntary recycling. DRS generates high-purity, food-grade recyclate because containers are returned relatively clean and separated by material type at the point of collection.

Reverse Vending Machines (RVMs) are automated collection points that accept empty containers, verify eligibility through barcode scanning or shape recognition, and issue deposit refunds as cash, store credit, or digital payment. Modern RVMs process 30 to 45 containers per minute and use optical sensors, near-infrared spectroscopy, and weight measurement to identify material composition. The global RVM fleet exceeded 320,000 units in 2025, with TOMRA, Envipco, and Diebold Nixdorf holding approximately 75% market share.

Reuse Systems extend the deposit concept beyond single-use recycling to multi-trip packaging. Containers are returned, cleaned, refilled, and redistributed, displacing new packaging production entirely. Reuse models achieve 80 to 95% lower lifecycle carbon emissions compared to single-use recycling, but require standardized container formats, industrial washing infrastructure, and reverse logistics networks capable of handling return flows.

Digital Deposit Infrastructure replaces physical deposit markings and manual return verification with digital tracking using QR codes, RFID tags, or blockchain-based provenance systems. Digital DRS enables variable deposit rates (higher deposits for materials with lower recovery rates), dynamic incentive adjustments based on real-time collection data, and interoperability across national borders.

Subsegment 1: Digital-First DRS in Emerging Markets

The most significant structural shift in deposit return schemes is the bypassing of legacy physical infrastructure in markets implementing DRS for the first time. Traditional DRS requires extensive networks of reverse vending machines, centralized counting centers, and deposit management organizations, infrastructure that costs $150 to $400 million to establish in a mid-size country. Digital-first approaches are collapsing these costs by 60 to 75%.

Indonesia's pilot program in Jakarta and Surabaya, launched in partnership with Plastic Bank and local fintech providers, demonstrates the model. Consumers scan containers using a smartphone app that verifies packaging type through image recognition. Verified returns at participating collection points (including existing waste banks, convenience stores, and informal waste picker aggregation points) trigger instant mobile money payments. The system processed 47 million containers in its first 12 months at a per-unit handling cost of $0.008, compared to $0.02 to $0.04 for RVM-based European systems.

The Philippines deployed a similar approach through the Re-Ply program, integrating DRS with the country's existing GCash and Maya mobile payment platforms. Collection rates in pilot areas reached 73% within 18 months, a remarkable figure given the absence of prior formal collection infrastructure. The program's success relies on the country's 78% smartphone penetration rate and the economic incentive structure, which sets deposits at PHP 3 to 5 (approximately $0.05 to $0.09), calibrated to exceed informal waste picker earnings per container.

India's approach, currently in pilot across six cities including Mumbai, Bengaluru, and Chennai, integrates deposit returns into the existing Unified Payments Interface (UPI) ecosystem. The technical architecture allows any payment terminal, including the 50 million+ UPI QR codes already deployed at small retailers, to function as a container return verification point. This infrastructure-light model has attracted $180 million in venture investment from Sequoia India, Prosus, and local impact investors.

The investment signal is clear: venture capital deployment into digital DRS infrastructure reached $430 million globally in 2025, tripling from $140 million in 2023. The majority of capital is flowing into Southeast Asian and South Asian markets where the combination of high smartphone penetration, robust mobile payment infrastructure, and severe plastic pollution creates conditions for rapid DRS adoption without the multi-year infrastructure buildout that characterized European and Australian implementations.

Subsegment 2: Standardized Reuse Systems at Commercial Scale

Reusable packaging has progressed from niche pilot programs to commercially scaled operations in three specific categories: B2B transit packaging, food service containers, and beverage bottles in closed-loop distribution systems.

South Korea's reuse infrastructure is the most advanced in the Asia-Pacific region. The country's "Zero Waste" policy framework, updated in 2024, mandates that food delivery platforms offer reusable container options for all orders by 2027. Baedal Minjok (owned by Delivery Hero) and Coupang Eats have partnered with container logistics provider Trellis to deploy standardized stainless steel containers across Seoul, Busan, and Incheon. The system processes 2.3 million meal deliveries per month in reusable packaging, with container return rates averaging 94% driven by a KRW 5,000 (approximately $3.70) deposit. Industrial washing facilities, capable of processing 50,000 containers per day, achieve sanitization standards validated by the Korea Food and Drug Safety Administration.

Japan's beer and soft drink industries have operated reusable glass bottle systems for decades (the "bin" system), but the model is now expanding to PET and aluminum through partnerships between Suntory, Asahi, and logistics provider Sagawa Express. The joint venture, announced in early 2025, targets 500 million reusable PET bottles annually by 2028, using standardized 500 mL and 2 L formats with RFID-embedded caps for automated sorting and tracking. The economics work because Japanese consumers already pay effectively higher per-unit beverage costs, and the distribution infrastructure for returns is dense relative to population.

In Australia, the Reusable Packaging Association of Australia and New Zealand has established standardized specifications for reusable transit packaging (pallets, crates, and intermediate bulk containers) used across grocery supply chains. Woolworths and Coles collectively converted 340 million single-use corrugated cartons to reusable plastic crates between 2022 and 2025, reducing packaging waste by 85,000 metric tons annually and generating estimated logistics savings of AUD 120 million per year through improved stacking efficiency and reduced product damage.

The economic tipping point for reuse systems varies by application. For B2B transit packaging, breakeven typically occurs at 5 to 8 rotations. For food service containers, 15 to 25 rotations are needed to offset higher per-unit container costs and washing infrastructure investment. For beverage bottles, 20 to 30 rotations are required, a threshold easily exceeded in markets with established return logistics but challenging in regions lacking collection density.

Subsegment 3: AI-Powered Sorting and Material Recovery

The third rapidly evolving subsegment sits at the intersection of DRS collection and material processing: AI-enhanced sorting systems that maximize the value extracted from returned containers.

TOMRA's latest generation of reverse vending machines, the T-9, incorporates multi-sensor fusion combining 3D shape recognition, near-infrared material identification, and high-resolution barcode scanning. The system identifies and sorts containers with 99.7% accuracy at speeds of 45 containers per minute, a 50% throughput improvement over previous models. More significantly, the T-9 can differentiate between food-grade and non-food-grade PET, clear and colored HDPE, and various aluminum alloy compositions, enabling premium sorting that commands higher prices from recycled material buyers.

Chinese technology company Incom Recycle has deployed over 85,000 smart collection units across Beijing, Shanghai, and Guangzhou, processing 4.2 billion containers in 2025. The company's AI backend analyzes collection patterns across its network to optimize pickup schedules, predict machine capacity utilization, and dynamically adjust deposit incentives in under-performing locations. The data platform reduces logistics costs by 35% compared to fixed-schedule collection and increases average machine utilization from 42% to 71%.

In Australia, container deposit operator Return-It has partnered with Greyparrot (a London-based AI waste analytics company) to deploy computer vision systems at its counting centers. The technology tracks every container through the sorting process, identifying contamination in real-time and generating material flow analytics that help beverage companies understand exactly where their packaging ends up. This transparency layer is becoming a competitive differentiator as brands face increasing pressure to demonstrate genuine circularity rather than simply collecting tonnage targets.

AMP Robotics, based in Colorado but expanding rapidly into Asia-Pacific markets, has deployed AI-powered robotic sorting arms that process DRS material at 80 picks per minute with 98% accuracy. The robots handle the labor-intensive task of quality verification at counting centers, addressing workforce availability challenges that have constrained DRS expansion in markets like Australia, where counting center labor costs represent 40 to 50% of system operating expenses.

KPI Benchmarks

Metric	Below Average	Average	Above Average	Top Quartile
Container Return Rate	<70%	70-80%	80-90%	>90%
Per-Unit Handling Cost	>$0.04	$0.02-0.04	$0.01-0.02	<$0.01
Material Contamination Rate	>5%	3-5%	1-3%	<1%
Food-Grade Recyclate Yield	<60%	60-75%	75-85%	>85%
Reusable Container Return Rate	<80%	80-88%	88-94%	>94%
Reuse Rotations Before Retirement	<10	10-20	20-35	>35
Digital DRS Verification Accuracy	<92%	92-96%	96-99%	>99%

Action Checklist

• Assess exposure to DRS mandates across operating regions, tracking PPWR timelines, Indian EPR rules, and national DRS rollout schedules
• Evaluate digital deposit infrastructure providers for markets lacking established RVM networks
• Map reusable packaging opportunities in B2B transit and food service categories where rotation economics are most favorable
• Secure long-term offtake agreements for food-grade DRS recyclate to meet rising recycled content mandates
• Pilot AI-powered sorting integration at counting centers to improve material value recovery
• Standardize container formats where possible to enable reuse system compatibility across supply chain partners
• Build data infrastructure to track container-level material flows for compliance reporting and brand sustainability claims
• Engage with industry consortia (Reloop, Ellen MacArthur Foundation, and regional packaging associations) to influence DRS design in pre-implementation markets

Sources

• Reloop Platform. (2025). Global Deposit Return Systems: Performance Benchmarks 2025. Brussels: Reloop.
• Ellen MacArthur Foundation. (2025). The Global Commitment 2025 Progress Report. Cowes, UK: EMF.
• TOMRA Systems ASA. (2025). Annual Report 2024: Collection Solutions Division. Asker, Norway: TOMRA.
• BloombergNEF. (2025). Circular Economy Investment Tracker: Packaging and Waste, Q4 2024. New York: Bloomberg LP.
• European Commission. (2024). Packaging and Packaging Waste Regulation: Implementation Roadmap. Brussels: European Commission.
• Ministry of Environment, Forest and Climate Change, India. (2024). Plastic Waste Management Amendment Rules: Extended Producer Responsibility Framework. New Delhi: Government of India.
• Australian Government Department of Climate Change, Energy, the Environment and Water. (2025). National Container Deposit Scheme Performance Report 2024-25. Canberra: DCCEEW.