Can Willy Wonka’s Three-Course Gum Be Made In Reality?

Willy Wonka’s three-couse gum may be possible through creating colloidosomes. A food company recently created a version of this gum using these colloidosomes that burst only at the right temperature.

Chewing Gum

bubble gum (Photo Credits : Shvaygert Ekaterina/Shutterstock)

One doesn’t have to be a movie buff to agree that cinema is inspiring. From the plaid skirts in Clueless to Butterbeer in Harry Potter, movies influence our choices. Cinema has also inspired some major scientific inventions. Be it mobile phones in Star Trek or military drones in The Terminator, sci-fi movies have helped ideate new inventions.

If one were to ask me which film I would want to turn into reality I would have say Charlie and chocolate factory. The thought of non-melting ice cream, chocolate eggs that crack open into birds, lickable wallpaper, or everlasting gobstoppers is exciting. But, the most remarkable of them all is Wonka’s three-course gum. Wait a minute- this idea may be closer to reality than we think.


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The Real-Life Three-Course Gum

To jog your memory, Willy Wonka presents to Violet his latest invention – a three-course meal gum. As you chew the gum, it unfolds the flavors of soup, meatloaf, and blueberry pie, one at a time, allowing one to enjoy a proper meal without having to eat one.

This inspired food architects Bompass and Parr to work on a multi-flavored gum that could release each flavor one after the other. They successfully invented a gum that changes flavors.

But how did they manage this? with the use of Colloidosomes.

What are Colloidosomes?

Colloidosomes are micro- or nanocapsules. The capsule has a shell that encases a substance within it that is released only at a desired time.

Let’s use popping Boba tea as an analogy. As you sip on your tea and come across the popping Boba of different flavors, they burst in your mouth to release a flavourful liquid. Imagine the tea to be your chewing gum and the Boba to be the colloidosomes.

As you chew on the gum, the colloidosome releases the flavor contained inside it. The only difference here is that each flavour of colloidosome will release flavor after a pre-determined time of chewing, giving the impression of changing flavors.

Green tea with orange popping boba & Diagrammatic Interpretation of multi-flavored changing Gum

Green tea with orange popping boba & Diagrammatic Interpretation of multi-flavored changing Gum (Photo Credit : Shutterstock) 

How are these colloidosomes made and used?

For this, let’s understand the simple structure of a colloidosome.

Structure of a colloidosome

The colloid: When two immiscible substances (water and oil) are combined in a way wherein microdroplets of one solution (oil) are scattered in the other (water) to form a stable mixture, they form a colloid. A colloid is the unit of the colloidosome in the same way that a cell is a unit of the body.

Think of it like salad dressing. When olive oil is added to water, it does not mix well. Upon shaking it, tiny oil droplets get dispersed in the water to form a mixture.

Shell: All the colloids stick together to form a strong shell.

The Matrix: The center contains the desired substance that is protected by the shell.

3-D Illustrated colloid structure external view & internal view

(Photo Credit : Shutterstock) 3-D Illustrated colloid structure: external view & internal view

Formation of Colloidosome

To understand how these colloidosomes are formed, let’s take the analogy of two familiar colloid solutions –  Milk and Salad dressing.

Milk is a colloid of tiny molecules of butterfat dispersed in water. Salad dressing is a colloid of tiny olive oil droplets dispersed in water along with some mustard that ensures the mixture stays stable.

Let’s assume, the small milk particle to have a positive charge and the large salad dressing particles have a negative charge. As we all know opposites attract, and in this case, the positive milk particles get attracted to the negative salad dressing particle and create a layer around the salad dressing particle, forming a shell around it. This attraction between negative and positive particles is strong and not easily breakable, thereby ensuring a firm shell of milk colloids around it.

A.Positively charged colloid B. Negatively charged colloid C. Colloidosome formed

A. Positively charged colloid B. Negatively charged colloid C. Colloidosome formed

Possible mechanism of colloidosome in gum

Though the colloidosome shell is strong, like all chemical substances, it too can be broken under specific conditions.  These conditions include pH, temperature, energy, pressure, etc.

Though the above analogy of the milk-salad dressing colloidosome is just for understanding and has not been tested out, the colloidosome for the Gum is made similarly with food-grade materials.

The gum is manufactured like any normal gum with different colloidosome flavors added to it. Each of these colloidosomes is sensitive to certain environmental changes in the mouth which will cause their shell to rupture and release the flavor.

For example, the gum is created with pizza and ice-cream flavored colloidosomes. The pizza colloidosome is more susceptible to the heat created by mechanical chewing and thus, will release its flavor first when in contact with saliva. The ice-cream colloidosome requires a higher temperature to rupture and therefore takes a while before releasing its flavor. This way you get to taste the pizza before you taste the ice-cream.

Challenges with the production of the Gum

No, it does not turn you into a giant blueberry like it did to Violet but there is a kink to iron out.  The gum has achieved the change in flavor but the initial flavor needs to disappear before the next flavor begins. Food Scientist Dave Hart and his team from the Institute of Food Research (U.K.) are working on making this a reality.

Conclusion

The research on colloidosomes is still ongoing and promises exciting avenues. Colloidosomes can be used as a tool to encapsulate drugs, dyes, proteins, and other biological materials.

Its application in the food industry is of utmost interest. It can be used to carry nutrients, flavors, and food dyes in various products.

It is these fascinating colloidosomes that have made it possible for Roald Dahl’s creative imagination to come to life.

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About the Author

Priyanka Shah holds a Master’s in Food, Nutrition and Dietetics ( India) and a Bachelor’s in Life Sciences (India). She is interested in the dual role of psychology and nutrition, with a preference for a scientific approach to wellness. She is particularly fascinated with the world of food science. 

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