Blog
Don’t Just Package Food. Protect Its Value.
September 16, 2026
Food businesses often view packaging as a cost of doing business—something that protects a product, enables transportation, communicates information, and gets it into the hands of consumers. But packaging can do a lot more than that.
Active and intelligent packaging technologies are creating new opportunities to reduce food waste by extending shelf life, monitoring product condition, and ultimately sending more food to its highest-value use. For businesses managing highly perishable products, that could mean less shrink, fewer markdowns, greater supply-chain flexibility, and stronger margins.
This is particularly relevant as food businesses face increasing pressure to reduce food waste while also controlling costs. You’re probably wondering, how much more will this packaging cost? Instead, businesses can begin asking a different question: How much value could the right packaging intervention preserve?
Traditional packaging primarily acts as a barrier, protecting food from physical damage and environmental conditions. Active and intelligent packaging takes that function a step further.
Active packaging interacts with the food or its surrounding environment to help slow deterioration and extend shelf life. Depending on the application, technologies can manage factors such as ethylene, oxygen, moisture, microbial growth, or atmospheric conditions.
Intelligent packaging provides information about a product’s condition or environment. Freshness indicators, temperature indicators, sensors, and other technologies can help businesses and consumers better understand whether food remains fresh or has experienced conditions that could affect quality.
As Moody Soliman, founder of Ryp Labs, puts it, “Active packaging modifies the environment inside a pack; intelligent packaging reports on it.”
The landscape is broad and increasingly diverse, including:
Microbial and mold management to slow spoilage
Ethylene management to slow ripening and deterioration
Freshness and ripeness indicators to communicate product condition
Atmosphere management to control gases such as oxygen and carbon dioxide
Moisture and humidity management to prevent conditions that accelerate spoilage
Temperature indicators to identify exposure to unfavorable temperatures
Sensors and traceability technologies that monitor products throughout the supply chain
These technologies are not necessarily competing solutions. In many cases, they can address different causes of food deterioration and may be used together. The interesting design question is which two or three to layer for a given product, not which single technology wins.
The active and intelligent packaging market remains relatively fragmented, with solutions targeting different products, causes of spoilage, and points in the supply chain.
This landscape overview shows eight organizations, reflecting the range of active and packaging solutions. The inclusion of any organization in this overview is for informational and illustrative purposes only and does not constitute an endorsement, recommendation, or validation by ReFED. This landscape is not exhaustive and does not reflect all available solutions. This information is not intended to constitute legal, tax, accounting, finance, or investment advice or an investment recommendation.
The key takeaway for food businesses is that there is no single “smart packaging” solution. The right technology depends on what is causing the product to deteriorate, where that deterioration occurs, and where extending shelf life creates the most value.
The strongest opportunities for waste reduction and value generation tend to be food products that are high-value, highly perishable, and vulnerable to quality deterioration before they can be sold or consumed.
Produce has been at the forefront of adoption, with active packaging solutions already being applied to products such as fruits and leafy greens. Ryp Labs, for example, has commercially validated its technology in the Latin American export supply chain, serving U.S. retailers including Costco and Sam’s Club and reporting reductions in dragon fruit losses of up to 60%.
There is significant room to expand these technologies into other highly perishable categories. Protein, particularly meat and seafood, presents an especially compelling opportunity because the value of each unit of product is typically much higher than that of produce. Even a modest extension in shelf life or reduction in spoilage can therefore preserve more economic value, potentially delivering a greater return on the cost of the packaging intervention.
Mimica Chief Design Officer Solveiga Pakštaitė argues that businesses should rethink how they view these technologies: “Let’s rethink these solutions from ‘just being part of packaging which should cost the absolute minimum’ to profit-optimization tools that are integrated at pack-level to unlock efficiencies that are not possible otherwise.”
The potential benefits extend beyond avoided waste:
Reduced shrink and disposal costs
Fewer markdowns and improved sell-through
Longer selling windows
Greater flexibility in transportation and distribution
More consistent product availability
Potential access to longer-distance or new distribution lanes
Improved visibility into product condition
Potential reductions in the environmental impacts associated with food waste
For a high-value product with significant spoilage, even a relatively small improvement in saleable product can potentially offset the incremental cost of the packaging.
Ryp Labs, for example, reports that its customers have observed reductions in product losses of 25–60% in certain applications. The company estimates that, for some high-value produce, even a 2–3% reduction in loss can cover the cost of treatment. (Note: These results are application-specific and should be validated through a business's own pilot.)
A strong use case requires more than demonstrating that a technology works in a laboratory or controlled environment. Businesses should evaluate:
Use-case fit: Does the technology address the primary cause of product loss?
Performance: How much shelf life or saleable product does it actually add under real-world conditions?
Economics: Does the value of avoided waste, markdowns, or lost sales outweigh the incremental cost?
Operational integration: Can the solution fit into existing packaging and distribution processes?
Food safety and regulatory requirements: Is the solution approved for the relevant food and markets?
Consumer acceptance: If the technology is consumer-facing, is it intuitive and trusted?
End-of-life: Does it affect packaging recyclability, compostability, or material recovery?
Net environmental impact: Does the additional packaging deliver a meaningful reduction in the impacts associated with food waste?
As Pakštaitė puts it, “We want to be disruptive in our thinking, but not in implementation.” That principle is particularly important for food businesses. The most promising technology will struggle to scale if it requires significant operational disruption, new infrastructure, or complex changes to existing packaging processes.
Freshr Technologies is one example of an active packaging solution designed to minimize operational disruption. The company has developed a coating for food packaging films designed to extend the shelf life of fresh proteins. The coating uses naturally derived ingredients that are chemically bound to the film rather than added to the food itself. At less than 5% of the film’s weight, the coating is designed to be compatible with existing recycling streams.
For processors, the value proposition is ultimately about buying more time. Additional shelf life can create flexibility across the supply chain, from how a product is transported to which markets it can reach. For example, extending the shelf life of a premium chilled protein could enable a processor to shift from air freight to lower-cost ground transportation while maintaining the product’s chilled quality. In other cases, additional shelf life could make it possible to reach markets that were previously inaccessible without freezing the product. The result is a business case that goes beyond avoiding food waste: more time can mean lower transportation costs, greater market access, and more opportunities to preserve the value of premium products.
End-of-life considerations are also becoming increasingly important as packaging regulations evolve. Extended producer responsibility (EPR) laws may create additional incentives for solutions that minimize material use or avoid adding complexity to existing packaging formats. As Soliman explains, “Solutions that reduce packaging weight per kilogram of preserved produce, or that replace restricted synthetic treatments, benefit from EPR fee structures. Solutions that add complex multi-material films get hit harder as EPR fees scale with material intensity and recyclability.”
One of the biggest barriers to adoption may be simpler than the technology itself. Businesses are often hesitant to test something new without knowing whether it will work. But the only way to determine whether a solution creates value in a specific application is to test it. Pakštaitė observes, “The most important thing is to do the pilots in the first place. We see quite a lot of analysis paralysis where it would be better to think ‘what’s the smallest way we can test this’ and then let the results speak for themselves.”
A practical approach is to:
Select one high-value, high-loss product or SKU at one origin or distribution center.
Identify the primary cause of loss and select a technology designed to address it.
Establish a baseline for current shrink, shelf life, quality, sales, and/or markdowns.
Run a real-world pilot against a comparable control (not a few pallets).
Measure both financial and waste outcomes.
Evaluate operational and consumer feedback.
Scale to adjacent SKUs, additional products, locations, or supply-chain lanes only after demonstrating value.
For some technologies, 45–90 days may be enough to generate meaningful evidence, while the appropriate pilot duration will depend on the product and loss mechanism.
The most useful metrics will vary by application, but could include:
Shrink percentage
Quality acceptance at receiving
Days of additional saleable life
Units or kilograms of food preserved
Markdown rates
Sales or sell-through
Cost of the packaging intervention
ROI
CO₂e avoided through food waste reduction
Active and intelligent packaging solutions will not eliminate food waste, nor will they make economic or environmental sense for every product. However, for food businesses facing significant losses from premature deterioration or lack of real-time information, they represent an increasingly practical tool for preserving food value.
The opportunity is to move beyond thinking about packaging solely as a cost or protective layer and instead consider its role in maximizing the value of the food inside it. As the technology landscape continues to mature, the businesses best positioned to benefit may not be those that adopt the most advanced packaging everywhere. They will be those that identify where a relatively small change in packaging can prevent a disproportionately large amount of product loss.
The question isn't whether your packaging can do more. It's where doing more could make the biggest difference.
ReFED is a U.S.-based nonprofit that partners with food businesses, funders, solution providers, policymakers, and more to solve food waste. Its vision is a sustainable, resilient, and inclusive food system that makes the best use of the food we grow. The organization serves as the definitive source for food waste data, providing the most comprehensive analysis of the food waste problem and solutions to address it. Through its tools and resources, in-person and virtual convenings, and services tailored to help businesses, funders, and solution providers scale their impact, ReFED works to increase adoption of food waste solutions across the supply chain.
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