At first glance, the technology checked every box you would want to see in a licensing opportunity.
Developed at a university, it was positioned as a baking process that could replicate the full sensory experience of fried food while reducing fat content by as much as 60% . It used an enzyme-modified starch system to deliver oil within a baked coating, allowing products to achieve the crispness, color, and mouthfeel typically associated with frying, without actually being fried.
From a concept standpoint, it was powerful.
Healthier fried chicken.
Lower fat, same taste.
No need for deep frying.
And even more compelling, the process was described as being compatible with existing coating lines, using commercially available ingredients, which suggested it could be adopted without major operational disruption .
On paper, it looked like a breakthrough ready for licensing.
But then you ask a different question.
What happens when you put this into a real fast food environment?
The Lab Is Controlled—Fast Food Isn’t
In controlled testing, the results were strong. Sensory studies showed minimal differences between baked and fried products across key attributes like crispness and mouthfeel .
But a fast food kitchen is not a controlled environment.
It’s a high-volume, high-pressure system where consistency, speed, and repeatability matter more than anything else. Products are prepared by different people, across different locations, using equipment that varies slightly from store to store. Timing isn’t perfect. Temperatures fluctuate. Holding times stretch.
That’s where the real test begins.
The First Real Question: Can It Keep Up With Speed?
Fast food operations are built around throughput.
Frying works because it is fast, consistent, and predictable. Products go in, they come out, and the timing is dialed in to the second. Any alternative process has to match that rhythm.
So the question becomes whether this baking process can deliver the same speed under real conditions.
Steam-baking and modified coating systems may work in controlled production, but in a fast food setting, where minutes matter and lines can back up quickly, even small differences in cook time can create operational friction. If the process slows things down, even slightly, it becomes harder to adopt regardless of its benefits.
The Second Question: What Happens in the Holding Bin?
In fast food, the product is rarely served immediately after cooking.
It sits, sometimes for a few minutes, sometimes longer, and that’s where a lot of food technologies break down. A product that comes out crispy can lose that texture quickly once it’s held under heat lamps or in warming drawers. Fried food tends to hold its structure in a predictable way, but a baked product that mimics frying in the first few minutes may not behave the same over time.
The real question is not just whether it tastes like fried food out of the oven.
It’s whether it still delivers that same experience after sitting in a holding bin during a lunch rush.
Because that’s what the customer actually experiences.
The Third Question: What Happens in Delivery?
Now layer in delivery, which has become a major part of the fast food ecosystem.
Food is packaged, sealed, transported, and often sits in an enclosed container where heat and moisture interact in unpredictable ways. Steam builds up, coatings soften, and texture changes. This is a challenge even for traditional fried products.
So the question becomes even more important.
Does this baked system maintain its texture after being boxed, transported, and opened by the customer, or does it lose the very qualities it was designed to replicate?
If it doesn’t hold up in that environment, the perceived value drops quickly.
The Fourth Question: Can It Work Across a Full Menu?
Fast food companies don’t operate with a single product.
They operate with entire menus, and consistency across those menus is critical. Chicken sandwiches, nuggets, tenders, different coatings, different formats, all need to perform reliably.
The technology uses a starch-oil matrix blended into coatings, which works in a defined application . But how adaptable is that across multiple product types?
Can it be standardized across different suppliers and facilities?
Does it perform consistently across different formulations?
Can it scale across an entire product line without introducing variability?
These are the types of questions that determine whether something becomes a scalable platform or remains a limited-use innovation.
A Common Challenge With University IP
This situation highlights something we see over and over again with university-developed technologies.
The science is often strong. The results in controlled environments are compelling. The potential looks significant on paper.
But there is a missing layer between research validation and real-world application.
University IP is typically developed to prove that something can work, not necessarily to prove that it works within the constraints of a commercial system. That means factors like speed, consistency, scalability, ingredient variability, and operational complexity are often not fully addressed in early-stage development.
Until those factors are tested, companies are left to bridge that gap themselves.
And most won’t move forward until that gap is reduced.
Where the Opportunity Starts to Shift
None of these questions invalidate the technology.
They redefine it.
Instead of being a ready-to-license solution, it becomes a high-potential innovation that still needs to be proven in the exact environment where it will be used. That changes how companies engage.
They are no longer evaluating whether to license it immediately.
They are evaluating whether to invest in validating it.
Why Fast Food Operators Think Differently
A fast food company is not evaluating this as a food innovation alone.
They are evaluating it as an operational system that has to perform under pressure. They are thinking about speed of service, consistency across locations, training requirements, equipment compatibility, and the customer experience over time.
If the technology introduces uncertainty into any of those areas, even temporarily, it becomes harder to adopt, regardless of how strong the initial results are.
What Needed to Happen Next
For this opportunity to move forward, the focus had to shift from proving the concept to proving the environment.
That means testing in real-world conditions, in actual kitchens, with real staff, under real time pressure. It means understanding how the product behaves not just at the moment of preparation, but across the full lifecycle of how it is served and consumed.
Only then can a company evaluate it as a true licensing opportunity.
The Bigger Takeaway
Breakthrough technologies don’t fail because the science is wrong.
They stall because the environment hasn’t been tested.
This is especially true with university IP, where the gap between research and commercialization is often the biggest hurdle. The closer your technology gets to real-world conditions, the clearer the opportunity becomes and the easier it is for companies to engage.
Where LCG Adds Value
This is where we work with clients at Licensing Consulting Group, helping to bridge the gap between promising innovation and real-world adoption. We don’t just evaluate the IP itself, we evaluate how it performs in the environments that matter to potential licensees.
From there, we structure the opportunity so that companies can engage at the right level, whether that means pilot programs, phased validation, or full licensing agreements once the risk has been reduced. Our goal is to move the opportunity forward in a way that aligns with how companies actually make decisions .
Your Next Step
If you have technology that performs well in controlled environments but hasn’t yet been tested in real-world conditions, the key question is how to bridge that gap.
👉 Schedule a 15-minute strategy call:
https://calendly.com/licensingcg/15-minute-video-meeting
We’ll look at your IP, where it stands, and help you define the right path to move it toward real-world adoption and licensing.
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It worked in the lab.
But the real question was whether it could survive a lunch rush.
Rand Brenner is an IP professional whose passion is helping inventors, startups, and businesses use licensing to turn their IP into income-producing products, services, and technologies. His decades of experience run the gamut from medical devices to food technology to consumer products. He’s licensed some of the biggest Hollywood entertainment blockbusters, including the Batman Movies (1 and 2) and the number one kid’s action TV show, the Mighty Morphin Power Rangers. Rand speaks about licensing and is a featured speaker at investment conferences, trade shows, colleges, and startup events. His first book, Hidden Wealth: The Money-Making Power of Licensing, was released in 2019 and is available on Amazon.com. He’s also a published writer, and his articles have appeared in several prestigious trade magazines, including The Licensing Journal, Intellectual Property Magazine, and License India.
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