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Control of Eating Behavior Using a Novel Feedback System
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The future of software-controlled cooking.

Jonathan David Blutinger1, Christen Cupples Cooper2, Shravan Karthik3

  • 1Department of Mechanical Engineering, Columbia University in the City of New York, 500 West 120th St., Mudd 220, New York, NY, 10027, USA. jdb2202@columbia.edu.

NPJ Science of Food
|March 22, 2023
PubMed
Summary

This article reviews how digital technologies like 3D food printing and laser cooking may change how we prepare meals. These methods use software to control the cooking process, allowing for more precise nutrient control and reduced human contact with food. This could lead to healthier meals and lower the risk of foodborne illness. The study suggests that these technologies may become common in both homes and industries due to their convenience and potential benefits. The authors propose that these innovations could improve food safety and nutrition, but more research is needed to understand their full impact.

Keywords:
3D food printingdigital cookingfood safetynutritional engineering

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Area of Science:

  • Food science and technology
  • Digital manufacturing
  • Nutritional engineering

Background:

Traditional cooking methods rely on analog tools like stoves and microwaves. These techniques have dominated food preparation for decades. However, digital innovations are transforming this landscape. Emerging technologies like laser cooking and 3D food printing offer new possibilities. These methods could enhance meal customization and nutrition. They also promise convenience and cost efficiency. Prior research has shown the potential of additive manufacturing in various industries. No prior work had resolved how these technologies might reshape home and industrial kitchens.

Purpose Of The Study:

This review explores the potential of software-controlled cooking methods. It aims to assess how digital technologies can improve food preparation. The focus is on laser cooking and 3D food printing. These technologies may allow better control over nutrition and safety. The study also considers how these methods might reduce human contact with food. This could lower the risk of disease transmission. The goal is to evaluate the feasibility of these technologies in daily use. The researchers propose that these tools could become common in both homes and industries.

Main Methods:

The researchers conducted a literature review on digital cooking technologies. They examined studies on 3D food printing and laser cooking. They analyzed how these methods use software to control food preparation. The review included assessments of nutritional benefits and safety. They compared these technologies to traditional cooking methods. The researchers evaluated the potential for home and industrial use. They also considered the impact of these technologies on food handling. The analysis focused on how these tools could reduce human contact with food.

Main Results:

3D food printing uses edible inks to create customized meals. Laser cooking applies targeted light for precise heating. Both methods allow greater control over nutrient content. These technologies may reduce the risk of foodborne illness. They enable less human handling of food, which could improve safety. The study found that these tools could lower preparation time and costs. They also offer the potential for highly personalized meals. The researchers suggest that these technologies may become widely adopted.

Conclusions:

The authors propose that digital cooking technologies may transform food preparation. These methods offer benefits in nutrition, safety, and convenience. They suggest that 3D food printers could become common in homes and industries. The study highlights the potential for reduced disease transmission. The researchers note that these tools allow more precise control over meals. They also suggest that these technologies may lower food preparation costs. The authors conclude that these innovations could improve public health. They emphasize the need for further research on adoption and scalability.

It allows precise control over nutrient content and reduces human contact with food.

It uses edible inks and user-generated models to create 3D food shapes.

It uses targeted light to heat food, reducing the need for direct human handling.

Software controls the cooking process to ensure precise nutrient delivery and safety.

They reduce preparation time and waste through precise ingredient use.

They propose that 3D printers may become common in homes and industries.