By James Costa, COO of Sneakz Organic

The packaging industry is changing fast. For decades, traditional plastics have dominated because they are lightweight, inexpensive, durable, and easy to manufacture. But the environmental cost is becoming harder to ignore.

Globally, plastic production reached 460 million tonnes in 2019, and plastic waste reached 353 million tonnes. Only 9% of global plastic waste was ultimately recycled after accounting for losses in the recycling process. Packaging is one of the biggest contributors, representing roughly 40% of plastic waste from short-life applications. [1]

Another estimate from the United Nations Environment Programme notes that approximately 36% of all plastics produced are used in packaging, including many single-use food and beverage containers. [2]

That is why the future of packaging will not be solved by one material alone. It will require better materials, better infrastructure, smarter design, clearer consumer communication, and realistic economics.

The Data Behind the Packaging Shift

The point is simple: packaging is not just a design decision. It is a waste, cost, logistics, consumer trust, and regulatory issue.

Why Traditional Packaging Is Under Pressure

Plastic still performs well. It protects products, extends shelf life, reduces breakage, and keeps transportation costs low because it is light. But the end-of-life system has not kept up.

In the United States, the EPA estimated that nearly 2 million tons of plastic containers and packaging were recycled in 2018. That represented only 13.6% of the plastic packaging generated. The rest was mostly landfilled or combusted for energy recovery. [3]

That gap is pushing companies to look for better answers. Consumers want more sustainable options. Governments are tightening packaging rules. Retailers and brands are being forced to rethink what packaging is made from, how it performs, and what happens after use.

Organic Waste and Advanced Materials

One promising area is the use of agricultural waste in next-generation materials. Coffee husks, rice husks, and other biomass waste streams are carbon-rich and renewable. Researchers have explored biomass waste as a possible source for bio-based graphene and graphene-like materials. [4]

Graphene is interesting because it can improve strength and barrier performance. In packaging, that could eventually help protect products from oxygen, moisture, light, and other factors that reduce freshness or quality. Research on graphene-based biocomposites shows potential for improving food packaging barrier properties. [5]

That said, this should be framed as an emerging opportunity, not a fully scaled packaging solution. Any material used for food contact must be validated for its intended use, including safety, migration, specifications, and regulatory compliance. [6]

Plain English takeaway: agricultural waste could become a valuable input for future packaging materials, but the technology needs more scale, testing, and food-contact approval before it can become mainstream.

Bioplastics: How They Will Be Used in Packaging

Bioplastics will play an important role in the future of packaging, but the term needs to be understood clearly. A bioplastic may be bio-based, biodegradable, or both. Bio-based means the material is made partly or fully from renewable biological sources instead of fossil raw materials. But bio-based does not automatically mean biodegradable or compostable. [7]

That distinction matters because different packaging formats need different solutions.

Some bioplastics are designed to behave like traditional plastics but with a renewable feedstock. Others are designed to break down under specific composting conditions. The right material depends on the product, shelf-life needs, moisture protection, filling process, transportation requirements, and the available disposal system.

In packaging, bioplastics will likely be used in several practical ways:

For a company like Sneakz, the most relevant opportunities may include bio-based beverage bottles, plant-based caps or closures, improved paperboard cartons, flexible pouches, and bio-based barrier coatings that help protect flavor, freshness, and product quality.

However, bioplastics are not a magic solution. Compostable plastic usually requires specific commercial or industrial composting conditions. If consumers do not have access to those systems, the packaging may still end up in landfill. [8]

There are also performance questions. Food and beverage packaging must protect the product, prevent leaks, preserve shelf life, survive transportation, and meet food-contact safety requirements. Any new packaging material must be tested for the specific product and use case. [6]

The market is growing, but it is still small compared with traditional plastics. European Bioplastics reported that packaging remained the largest bioplastics segment in 2025, representing 41.3% of the total bioplastics market, or about 0.95 million tonnes of global bioplastics production capacity. [9]

Plain English takeaway: bioplastics will be used in bottles, caps, films, pouches, coatings, cartons, and compostable packaging. But each use case must be matched to the right material, the right product, and the right end-of-life system. The goal is not simply to call something “plant-based.” The goal is to create packaging that performs well, reduces fossil-plastic dependence, and can realistically be recycled, composted, or responsibly managed after use.

Packaging Feedstocks Need Realistic Planning

Sustainable packaging is not only a materials challenge. It is also a feedstock challenge.

Many bio-based packaging materials depend on agricultural inputs such as corn, sugarcane, cassava, wheat straw, rice husks, bagasse, and other plant-based or agricultural byproduct streams. These inputs can be used to produce bioplastics, molded fiber packaging, paper alternatives, coatings, films, and other renewable packaging components.

That creates a major opportunity for the packaging industry. Agricultural byproducts that were once treated as waste may become valuable raw materials for packaging innovation. Rice husks, coffee husks, sugarcane bagasse, and other biomass streams can potentially support paper-based packaging, bio-based resins, compostable formats, or advanced barrier materials.

But the industry needs to be realistic. Agricultural resources already serve many markets, including food, animal feed, fuel, sweeteners, and industrial materials. In the United States, corn is used heavily for fuel alcohol and animal feed, while only a smaller share goes toward high-fructose corn syrup. [10] That means packaging companies should not assume that redirecting one crop use will automatically create a large new supply of packaging feedstock.

Sugarcane is also important. Brazil has one of the world’s largest ethanol markets, and sugarcane is its primary ethanol feedstock. [11] As transportation, energy, and materials markets evolve, sugarcane-based infrastructure may create opportunities for more bio-based packaging applications.

The key is to build packaging systems that use agricultural inputs responsibly. The strongest opportunities may come from using byproducts, waste streams, and non-food biomass wherever possible. That would allow the industry to expand renewable packaging without creating unnecessary pressure on food supply, land use, or commodity pricing.

Plain English takeaway: agriculture matters to packaging because future materials will need reliable, renewable feedstocks. The best path is not simply using more crops. It is using agricultural resources intelligently, especially by turning byproducts and waste streams into valuable packaging materials.

Glass Is Useful, But Not Perfect

Glass is often viewed as a sustainable option because it is recyclable and can be reused in some systems. But glass also has trade-offs. It is heavy, which can increase transportation impact, and recycling depends on collection, sorting, and processing quality.

The EPA estimated that U.S. glass containers had a 31.3% recycling rate in 2018. The same EPA data estimated that 55.4% of glass containers and packaging were landfilled that year. [3]

Glass recycling can reduce energy use when recycled glass, known as cullet, replaces virgin raw materials. Research cited by the Climate Technology Centre & Network notes that adding 10% extra cullet can reduce furnace energy consumption by about 2.5% to 3%. But that benefit depends on having enough clean, properly sorted recycled glass. [12]

Plain English takeaway: glass can be part of a sustainable packaging strategy, but it is not automatically the best option in every use case.

Paper and Fiber Packaging Are Gaining Ground

Paper and fiber-based packaging are also improving. They are renewable, familiar to consumers, and often easier to recycle than many plastics.

In the United States, paper and paperboard containers and packaging had an estimated 80.9% recycling rate in 2018. Corrugated boxes performed especially well, with a 96.5% recycling rate. [3]

The challenge is performance. Paper must often be strengthened or coated to resist moisture, grease, oxygen, or tearing. The future may involve hybrid systems: paper or fiber combined with better coatings, bio-based films, or advanced barrier materials.

Plain English takeaway: paper is strong from a recycling standpoint, but food and beverage applications still need better moisture and barrier solutions.

Smart Packaging Will Become More Important

The future of packaging is not only about materials. It is also about information.

Smart packaging can use QR codes, NFC, RFID, digital labels, and connected systems to give consumers and supply chains more useful data. This can include product origin, freshness, ingredients, allergens, recycling instructions, expiration dates, and traceability.

GS1’s Sunrise 2027 initiative is pushing the industry toward 2D barcodes that can carry more information than traditional UPC codes. These 2D barcodes can support product variants, production dates, expiration dates, consumer engagement, safety, traceability, and inventory management. [13]

Plain English takeaway: packaging is becoming a communication platform, not just a container. Sustainability and sourcing will become verifiable.

Regulation Will Keep Raising the Bar

Regulation will also shape packaging decisions. The European Commission’s packaging rules aim to make all packaging on the EU market recyclable in an economically viable way by 2030, increase recycled plastics use, reduce virgin material use, and move the sector toward climate neutrality by 2050. [14]

For companies, this means packaging decisions need to be made earlier and more strategically. Waiting until regulation forces change is risky. Brands that plan ahead will have more options, better cost control, and a stronger sustainability story.

Consumers Expect Clarity

Consumers care about sustainability, but they also care about price, convenience, safety, and performance. That creates a practical challenge: sustainable packaging must work in the real world.

McKinsey’s 2025 global packaging survey found that willingness to pay more for sustainable packaging varies by country and consumer segment. Younger and higher-income consumers generally show greater willingness to pay more, but the market is not one-size-fits-all. [15]

This means brands need to communicate clearly. Consumers should understand what the package is made from, whether it is recyclable, compostable, reusable, or made with recycled content, and what they should do with it after use.

Plain English takeaway: sustainability claims need to be specific, honest, and easy to act on. Forcing more expensive packaging on lower income families, before the market is ready, may do more harm than good. It's step-by-step process.

What This Means for Sneakz and the Packaging Industry

The future of packaging will be built around systems, not slogans.

The best packaging choices will balance:

The next generation of packaging must do more than look sustainable. It must perform, protect, scale, and make economic sense.

Organic waste materials may become inputs for advanced coatings and graphene-like materials. Bioplastics may reduce dependence on petroleum-based plastics. Paper innovation may expand renewable packaging applications. Glass, aluminum, and other materials will continue to have roles where they make sense. Smart packaging will improve transparency and traceability.

The companies that lead will be the ones that evaluate packaging honestly: not just by what sounds good, but by what works.

Packaging is entering a new era. The opportunity is to build systems that protect products, reduce waste, earn consumer trust, and create long-term business value.

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Sources

[1] OECD — Global Plastics Outlook and plastic pollution data. Used for global plastic production, global plastic waste, ultimate recycling rate, and packaging’s share of short-life plastic waste.

[2] United Nations Environment Programme — Plastic pollution overview. Used for the estimate that approximately 36% of plastics produced are used in packaging.

[3] U.S. Environmental Protection Agency — Containers and Packaging: Product-Specific Data. Used for U.S. plastic, glass, paper, and corrugated packaging generation, recycling, combustion, and landfill statistics.

[4] BioResources — Review on bio-based graphene derived from biomass wastes. Used for the discussion of biomass waste as a potential source for graphene and graphene-like materials.

[5] Graphene derivatives in biopolymer-based composites for food packaging. Used for the discussion of graphene-based materials and possible food-packaging barrier applications.

[6] U.S. Food and Drug Administration — Food contact substance regulation. Used for the food-contact safety and regulatory compliance language.

[7] European Bioplastics — Definition of bioplastics. Used for the distinction between bio-based, biodegradable, and materials that are both.

[8] U.S. Environmental Protection Agency — Plastic recycling and composting FAQ. Used for the distinction between biodegradable and compostable plastics, and the requirement for commercial or industrial composting conditions.

[9] European Bioplastics — 2025 market data. Used for bioplastics market capacity and packaging’s share of the bioplastics market.

[10] U.S. Department of Energy Alternative Fuels Data Center — U.S. corn use by market year. Used for the discussion of corn allocation across fuel alcohol, feed, food, and sweetener uses.

[11] USDA Foreign Agricultural Service — Brazil Biofuels Annual. Used for Brazil ethanol market context and sugarcane as the primary ethanol feedstock.

[12] Climate Technology Centre & Network / IEA industrial energy efficiency report. Used for the estimate that 10% extra cullet can reduce glass furnace energy consumption by roughly 2.5% to 3%.

[13] GS1 US — Sunrise 2027. Used for the discussion of 2D barcodes, product data, expiration dates, traceability, and inventory management.

[14] European Commission — Packaging waste rules and objectives. Used for the EU packaging recyclability target by 2030, recycled plastics use, virgin material reduction, and climate neutrality direction.

[15] McKinsey — Sustainability in packaging 2025: global consumer views. Used for consumer willingness-to-pay and segment differences around sustainable packaging.

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