Circularity and Plastics: Proceedings of a Workshop (2025)

Chapter: 3 Packaging: Desired Future State and Solution Pathways

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Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

3
Packaging: Desired Future State and Solution Pathways

In characterizing the desired future for packaging, this breakout group discussed a vision of convenient, safe, equitable access to products and reuse and recycling systems, with near-term and increasing reduction in plastic use and pollution and ultimately right-sizing of the packaging stream for the needs of the market. This vision considered both of the roles of waste management and recycling and the consumer engagement side of the market.

As presented in Table 3-1, these systems could benefit from being intuitive, making the “right” choice the default option, and should minimize the burden on the consumer both financially and in terms of environmental and health impacts. Participatory design and other paths for stakeholder engagement could potentially grow support for and increase interaction with circular strategies by members of the public.

This group discussed desirable characteristics of a future extended producer responsibility (EPR) program (Table 3-2) and the potential related targets and measurable impacts (e.g. reduction and reuse targets and recycling rates). The group also envisioned harmonized and transparent collection of data and materials streams, which provides enough flexibility to enable innovation but also specifies targets and timelines.

The group noted that the increasing number of states engaging on EPR presents an opportunity to set a federal “floor” for these programs. For example, “producer” could be defined because different states and sectors define this term differently. Accordingly, a federal framework to provide commonality is another potentially helpful step—not only to enable future state-level legislation by accelerating that process, but also to harmonize definitions from an operational perspective.

The group indicated the potential for the EPR effort to be combined with bottle bills or a takeback program and to be complementary with other regulations. In addition to

Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

state efforts and a federal “floor” model, education could be a powerful pathway to enable the end states described, particularly if it illuminates the intended end state.

There are some limits to current legislative efforts in this area. For example, the life cycle assessment (LCA)-based requirements in Oregon’s EPR scheme may end up incentivizing more plastic use. Plastic scores well in the LCA developed by Oregon because the state reviews a specific set of environmental factors (e.g., greenhouse gas emissions) based on nationally averaged, and sometimes, outdated data. EPR fees are based on weight, and LCAs are often based on weight, meaning that heavier packaging (e.g., metals or glass) are disincentivized twice, which could create perverse incentives to increase plastic use. This group noted the benefits of learning from the successes and drawbacks of legislation across the United States and internationally.

In addition, a potential future where every material on the packaging market is recyclable (displacing virgin plastics) was described, with desires for consistency in design, which set the stage for the design subgroup’s report-out.

The design breakout group envisioned a future state where design and technology deliver plastic packaging that does not harm people or the planet. Under the umbrella of “C5” (for Collaboration + Consistency + Commonalities + Communication + Confidence across value chains with all stakeholders), this group discussed a generic brand company to create and develop tools for standardization and scoring, test materials and product design, and new technologies. This generic brand could partner with nongovernmental organizations and academia to support innovation, research and development (R&D), piloting, and scaling efforts—particularly so that established brands do not assume all of the risk. This endeavor could utilize unique QR codes to track the life cycle and drive reuse, refill, and recycling of the material.

Approaches to packaging are based on a reduce, reuse, and recycle paradigm to reimagine growth. The group noted the desire to eliminate unnecessary packaging and materials, minimize (and simplify) the number of essential plastics (e.g., medical supplies) in use, and use refillables or reusables where possible. Materials, products, and technology could be designed to support this effort.

This group outlined a future where:

  1. Consumers understand the benefits and risks of their product purchases and packaging.
  2. Companies have the correct tools to design minimal negative impacts on people and the planet.
  3. Regional material processing and converting facilities know how to safely and effectively process material in a circular fashion.
  4. Regionalized value chains (waste generators, collectors, processors, converters, and end markets) are connected so that the design of materials and products, and the technology that is deployed, connects to end market demands.
Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

TABLE 3-1 Summary of Human Dimensions in Desired State and Example Pathways Prepared by the Packaging Breakout Group

Desired Future State—Human Dimension Example Pathways to Desired Future
  • Systems for circularity that are intuitive
  • Consumers have renewed trust in recycling and waste management systems based on increased transparency
  • Humans can interact with these systems easily with meaningful and appropriate outcomes
  • An optimal circular system is convenient and the default so that people do not have to make a choice, i.e., not having to go out of their way or pay more
  • System is accessible, equitably available, and affordable
  • A benefit to the consumer even if not a cost reduction at point of sale, could reduce the cost of waste collection
  • Reset on recycling including an organization or methodology that helps consumers understand what bin to put a product in
  • 100 percent stakeholder participation
  • Consumers have certainty that they do not have to worry about chemicals of concern
  • Ease of use; consumers do not have to worry about additional complexity
  • Minimal burden of concern on consumers and communities
  • Everyone has safe, equitable access to products
  • New infrastructure has no impact on communities

Redesign

  • Availability and uniformity of products on the shelf
  • Standardized packaging reduces complexity of choice for consumers and enables economy of scale for waste management (preserving branding)
  • Redesigned delivery of small single-use items either with refill or recyclable packaging to maintain equitable access
  • Creating modular systems that are tailored to different regions/communities. Modular systems informed by the people they aim to serve, using community input as a design justification
  • Leveraging existing infrastructure, many places have trucks collecting and MRFs running; incorporating these with reuse/refill systems
  • Using a participatory design process with the community could enable testing of several different local circular systems for performance
  • Improvements to system infrastructure (drinking water infrastructure, corner stores, more access to smaller portion sizes, using existing logistics/reverse logistics for reuse/refill systems)
  • Focusing on a specific location and then thinking about scaling from there
  • Developing a matrix of solutions, i.e., packaging vs. modular solution for a given location
Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

Example Pathways → Systems approach
Stakeholder Engagement and Other Considerations

  • Using a participatory design process principles or similar methods to engage
  • Targeted marketing campaigns; who in the value chain shows consumers how the circular pathways work?
  • Are there voices that are better stewards of the message?
  • Transparent communication
  • Collaborative discussions with stakeholders from across the value chain with a strong facilitator who can handle the diverse room and recognition that this will take time and space to develop specific roadmaps
  • Messaging about everyone being involved in eliminating the burden of plastics and plastics waste
  • Developing a just transition for circularity
  • Creating local jobs through local circularity
  • Empowering and engaging people in the process to drive change

Example Policy (Requiring specific or standardized packaging, requiring refill options, EPR, taxes or subsidies for initial investments and scalability and consumer affordability)

  • Potential policy benefits:
    • Specific or standardized packaging
    • May support waste management system efficiency
    • Consumer ease of recycling
  • Wider availability of refill options through retailers expanding their refill offerings
  • EPR that includes incentives for ecomodulation
  • Taxes or subsidies for initial investments and scalability, as well as consumer affordability
    • Can help with the initial investments and pilots
    • May support companies with scalability
    • Unburdening consumers from having to pay the increased cost of initiatives

NOTES: This summary from the breakout session reflects the discussion of the group and should not be construed as reflecting consensus of the group. EPR: extended producer responsibility; MRF: material recovery facility.

Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

TABLE 3-2 Summary of EPR Desired State and Example Pathways Prepared by the Packaging Breakout Group

Desired Future State—EPR Example Pathways to Desired Future

Convenient, safe, equitable access to reasonably priced products, reuse and recycling systems in the near-term, while continuing reduction of plastic use, limiting pollution, and right-size the packaging stream for needs

EPR Programs that are:

  • Material agnostic (i.e., includes all packaging and works for all packaging)
  • Inclusive of targets for reduction and reuse, not just recycling
  • Using KPI for performance and effectiveness such as access rate, recovery rate, reuse, reduction rate
  • Standardized for MRFs and haulers
  • Harmonized (data collection, transparency)
  • Designed to drive simplification (including investing in U.S.)
  • Flexible enough to encourage innovation (e.g., higher EPR fees— not bans—on flexibles)
  • Developed with appropriate on-ramp (to enable time to innovate and meet regulation intent)
  • Have drivers for including broader participation into EPR scheme designs
  • Adaptive, with requirements set based on a needs assessment
  • Inclusive of format and material category specific targets that can grow with time
  • Holding parties and companies accountable for their products
  • Including bottle deposit and take-back programs
  • Using ecomodulation that are simple and focused on environmental outcomes

Other regulations

  • Further thought to back of store and PIR

“Federal floor” concept: a minimum federal requirements as basis for EPR schemes, including:

  • Design requirements
  • Reduction, reuse, access, recovery, and recycled content rates
  • Better than “golden design rules”
  • Access to recycling
  • Naming/Labeling guidelines (to enable cross-state movements)
  • Traceability
  • Kick-back from state programs to fund EPA/FDA/NIST research or academic consortia on PCR safety

Introduce ON-RAMP to give parties a chance to deliver results

Apply lessons learned and build upon existing EPR program leaders from the U.S. and other jurisdictions outside the U.S.

Reuse existing legislative language from the following states/topic area:

  • Colorado’s full funding program
  • Does not include LCA like in Oregon
  • California’s effectiveness metric, rates and dates, mitigation, baseline for source reduction
  • Minnesota’s language around producers and other definitions
  • Other countries or territories (e.g., France)
Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
Every material on the market for packaging in future is recyclable (e.g., phasing out use of PVC in future applications) Education programs targeting the following audiences:
  • Regulators and law makers
  • Communities and local governments
  • Consumers

Examples to include in programs:

  • Concepts and principles of EPR programs
  • How EPR schemes are designed to work
  • Success stories and/or lessons learned
  • Ways to know programs are working

It could be more beneficial from a multi-party group that includes NGOs, academia, recyclers, associations, brand owners, and plastics producers

Including incentives for regional use for example pathways for U.S. domestic waste to circle back into U.S. products (e.g., including domestic PCR requirements as part of EPR with ecomodulation for higher use of PCR, regardless of domestic status)
Increasing usage of recycled content Removing undesirable ingredients from plastics recycling streams
Applying PCR mandates (including food exemptions, credit systems, etc.) with simple content criteria
Protection for new (positive) formats that can technically be recycled (but may not yet have infrastructure)

NOTES: This summary from the breakout session reflects the discussion of the group and should not be construed as reflecting consensus of the group. EPA: U.S. Environmental Protection Agency; EPR: extended producer responsibility; FDA: U.S. Food and Drug Administration; KPI: key performance indicator; LCA: life cycle assessment;

NGO: non-governmental organization; NIST: National Institute of Standards and Technology; PCR: post-consumer recycled content; PIR: post industrial recycled; PVC: polyvinyl chloride.

Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.

When discussing the pathway to a desired future, the group raised the issue of legacy materials and related toxicity concerns. In its vision of an end state, the previous breakout subgroup indicated a role for federal funding and engagement (funded through small contributions from state EPR programs) so that agencies could conduct the testing needed to enable engagement with legacy materials. The design breakout group noted the importance of shared definitions and standardization for reduction, refillables, reusables, and recyclability—for both the producers and consumers. The International Standards Organization (ISO) has developed standards, but they do not include residential components, for example, effects from reusing plastic packaging in the home (e.g., when microwaved).

The group also underscored the role of commonality for producers as well as for industrial and commercial stakeholders, coupled with education to enable consumer behavior changes. For example, standards could be developed for refillable, reusable, and recyclable food packaging, with agreed-upon packaging design to engender systems change across brand owners. Another vision involves reusables with QR codes with reverse vending machines for deposits. Reusable applications could be attained in closed systems including reusable cups that do not leave stadiums, semi-closed systems such as cafeteria trays that could be taken away but then reported, systems with financial deposits, and reusables cup at restaurants that customers can return when driving to an alternative location. The group noted that learning from failed cases can inform development of successful systems.

This group’s discussion concluded with an emphasis on accelerating the R&D time-line for plastic packaging innovation, exploring technologies that could be deployed in the short term while working through R&D timelines for alternatives. Regarding the desire to drive more collaboration and/or cooperation, the group discussed the application of standards to both upstream and downstream material flows, as well as consistent scoring frameworks, particularly those that account for social, economic, and environmental opportunities and for community-level factors.

One additional topic discussed was the global or regional nature of material selection, branding, and marketing. In contrast, recycling is a local endeavor, with different facilities, recycling systems, costs, and policies in different places. The role for different communication channels, communication formats, and marketing efforts, and how these are received in different communities, was also noted.

Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
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Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
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Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
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Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
Page 25
Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
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Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
Page 27
Suggested Citation: "3 Packaging: Desired Future State and Solution Pathways." National Academies of Sciences, Engineering, and Medicine. 2025. Circularity and Plastics: Proceedings of a Workshop. Washington, DC: The National Academies Press. doi: 10.17226/29199.
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