The main food and beverage industry tech trends are restaurant digitization (digital menus, kiosks, cashless payments), digital food management with big data and AI, food waste reduction technology, robotics and automation, and 3D food printing. Alternative proteins such as cultivated meat are a newer trend that regulators in several countries have now approved.
Key Takeaways
- The pandemic pushed restaurants toward digital menus, self-service kiosks, cashless payments and curbside pickup, and many of these tools have stayed.
- According to the UN Environment Programme (UNEP) Food Waste Index Report 2024, about 1.05 billion tonnes of food was wasted in 2022, almost one-fifth of the food available to consumers.
- The International Federation of Robotics reports a global average of 132 industrial robots per 10,000 manufacturing employees in 2024.
- 3D food printing uses extrusion, laser sintering, binder jetting and inkjet methods; the first 3D-printed food product sold in supermarkets arrived in 2023.
- Cultivated meat has been approved for sale in Singapore (2020), the United States (2023) and Australia and New Zealand (2025), while some places have banned it.
The pandemic played a significant role in the changes and progressions forced onto the Food & Beverage industry.
Covid 19 affected consumers as well as businesses. What was once the well-known expectations and wants of consumers has shifted. More than ever, there is an emphasis on technology and its solutions.
The shift was disruptive at the time, but it also opened up new opportunities for food and beverage businesses.
The Food & Beverage industry took heavy hits during the pandemic, and technology has been a central part of how the sector has adapted and grown since.

Top 5 F&B Trends You Should Know About
Customers now expect convenient, contactless and secure ways to order and pay, and many familiar processes have changed. Because of this, the F&B industry can no longer afford to turn a blind eye to their need to adopt new and practical solutions.
Restaurant Digitization
Forced to adapt to new demands by pandemic consumers and the changing times, restaurants that adopted digital solutions have been better placed to meet customer expectations since the pandemic. These upgrades give customers the fast, digital experience many of them now expect.
During the pandemic, efforts were made to abide by social distancing guidelines, and some of these solutions may have come to stay.
This includes digital menus, self-service kiosks, cashless payment through e-wallet software solutions, and curbside pickups. And then there are the more interactive trends; chatbots and voice bots can answer customer questions and handle simple requests in real time.
Designed to take over repetitive manual tasks, these tools can save businesses time and money and reduce human error, while also supporting a positive Customer Experience (CX).
They are also ideal for collecting relevant consumer data to analyze data-driven insights. With a custom tweak, restaurants can tailor responses and the information they offer – adding an individual touch to consumer interactions. Adding AI-enabled features can extend these benefits further.
These tools can be combined and customized to offer a more personalized experience. With options to upgrade all business areas, technologies can be implemented across the business, from online registries and reservations to e-menus and e-payments. Restaurant workflows can be streamlined with financial and hospitality management software.
Digital Food Management
Across the vast supply chain, big data analytics and AI are now used alongside real-time monitoring. Together, these tools form the basis of digital food management.
Pairing this tool with other trends such as restaurant digitization allows for a thorough acquisition of supplier, manufacturer, retailer, and consumer data. It optimizes the behavioral analysis of this chain and demand forecasting using real-time data acquisition.
Overall, a thorough overview of market requirements and predicted disruptions is offered, which is ideal for being able to, for instance, effectively reduce losses and manage surplus food.
Quantum computing is sometimes promoted, including by startups, as a future tool for analyzing critical disruptions such as pandemics and simulating market fluctuations, but proven, routine uses in the food sector are hard to verify as of October 2026. Brand and marketing strategies can be optimized to reach relevant audiences and boost sales.
Food Waste Reduction
The awareness around food waste has continued to grow over recent years. Consumers are increasingly concerned about where their food comes from and how much waste is created from production and product packaging.
With climate change a growing concern, many consumers are paying closer attention to their environmental impact. Now they are looking for progressions towards upcycling, zero waste, reduced carbon footprints, and water conservation.
With food monitoring solutions, food producers, sellers, and smart cities reduce their food waste. Many of these solutions aim to move beyond reducing food waste toward zero waste.
Food waste tracking systems implement tracking modules that oversee and note poor food quality control, warehouse slotting, spillovers, theft, shelf life, overstock, and more. This data is then collected and compiled into a readable and actionable composition that can be analyzed.
Though the pandemic slowed down this progression, food brands are still trying to upcycle and reuse food waste to generate value and increase consumer reach and responses (regarding sustainability).
As Gen Z comes into more purchasing power, businesses need to be aware of a trending shift in the demand for food waste reduction. Current issues with single-use plastics and municipal recycling systems will only go further under the microscope.
Products such as paper straws, compostable trays and bags, and bulk produce help, but on their own they are unlikely to solve the packaging-waste problem.
Robotics
When robots were first introduced, many food businesses tried them cautiously and dropped them quickly, because early systems felt like half-finished solutions.
Since then, technical improvements have made robots practical in a much wider range of processes and industries. When this article was first published, one forecast predicted that the number of robots per 10,000 employees would rise by 47% within five years. According to the International Federation of Robotics (IFR), in figures published in April 2026, the global average reached 132 industrial robots per 10,000 manufacturing employees in 2024, with the Republic of Korea highest at 1,220 and the United States at 307. Machines that once belonged in sci-fi movies are now a routine part of many factories.
When situated in warehouses and grocery stores, drones and food handling robots enable a faster and more cost-effective food-tagging and monitoring process. Robotics can raise food production output through greater speed, efficiency and precision, in tasks ranging from burger-flipping to mass production.
Robots have settled snugly into the food and beverage industry and its processes. They’ve even been deployed as a hospitality solution in hotels and restaurants, improving consumer safety, convenience, and overall experiences.
The food & beverage industry was long seen as slow to adopt technology, but robotics has helped it catch up in many areas. One market forecast cited when this article was first published put the food robotics market at about $2 billion by 2028; market research firms publish widely differing estimates, so treat any single figure with caution.
3D Food Printers
You’ve probably heard of 3D printing toys such as lego-style bricks at home; 3D food printing applies the same layer-by-layer idea to edible materials.
Not long ago, we had FDM printing and Additive Manufacturing (AM) methodologies like material extrusion printing. But these solutions continued to be developed, ensuring increased quality and precision of 3D-printed food products.
It was common for manufacturers to use standard and outdated food printing methods, but revolutionary tools like lasers, bioprinting, and inkjet food printing are being implemented. With 3D printing tools, it’s easier than ever to produce precise and reproducible nutritional products that, for instance, abide by dietary and protein-based rules.
These tools give brands more freedom to personalize products, although costs and production speed still need to be weighed against conventional methods. Automated printing also widens the range of shapes and textures that kitchens and manufacturers can produce.
Consumer Demands and Trendy Ideas
From the trends listed here, it’s evident that concerns and ideas are being acted upon. But this isn’t any good unless steps are taken to implement them.
By identifying new opportunities and emerging food tech, such as those mentioned here, businesses and vendors stand to gain a real competitive advantage that will upgrade and streamline their processes and enhance their business-customer relationship.
The food & beverage industry is a tough market, and implementing a single solution, tool, trend, or technology will not be enough to go head-to-head with what awaits.
Businesses need up-to-date technologies and a clear strategy to compete. Combined with solutions tailored to the business, that strategy is more likely to succeed.
Although the Covid-19 pandemic disrupted plans across the sector, it did not stop the F&B industry from embracing technology. From printed pizzas to C-3PO-style robots cooking dinner, many of these technologies are already in commercial use.
Food and Beverage Tech Trends Compared
The table below summarizes the five food and beverage technology trends covered above, with what each one does and its main limitation.
| Trend | What it includes | Main benefit | Main limitation |
|---|---|---|---|
| Restaurant digitization | Digital menus, self-service kiosks, cashless and QR payments, chatbots, curbside pickup | Faster service and useful customer data | Setup costs and the need to keep systems secure |
| Digital food management | Big data analytics, AI, real-time monitoring and demand forecasting across the supply chain | Better forecasting and less surplus | Depends on sharing reliable data between suppliers, manufacturers and retailers |
| Food waste reduction | Food waste tracking systems, shelf-life monitoring, upcycling | Lower costs and a smaller environmental impact | Most food waste happens in households, outside a business’s control |
| Robotics | Food handling robots, drones, kitchen and warehouse automation | Speed, precision and consistency | High upfront investment |
| 3D food printing | Extrusion, laser sintering, binder jetting and inkjet printing of food | Personalized shapes, textures and nutrition | Still a niche technology for most producers |
Payment technology is one of the easiest places to start; see the advantages of QR code payment for how contactless payments work in practice.
How Much Food Is Wasted Worldwide?
About 1.05 billion tonnes of food was wasted worldwide in 2022, according to the UN Environment Programme (UNEP) Food Waste Index Report 2024, produced with the charity WRAP. That figure includes inedible parts and equals about 132 kilograms (about 291 pounds) per person, or almost one-fifth of all food available to consumers. As of October 2026, the 2024 report is the newest edition of the index.
- Households: 60% of the total
- Food service: 28%
- Retail: 12%
Because food service and retail together account for about 40% of food waste, the tracking systems, demand forecasting and inventory tools described above have a direct role in cutting it. Better data across the supply chain also links to wider changes such as Industry 4.0 in supply chains and blockchain for supply chain traceability.
How Common Are Robots in Industry Now?
Robot density measures the number of operational industrial robots relative to the number of employees. According to the International Federation of Robotics (IFR) World Robotics 2025 figures, published in April 2026, the global average was 132 robots per 10,000 manufacturing employees in 2024. The Republic of Korea had the world’s highest robot density at 1,220, and the United States ranked 8th with 307. The IFR also reports that the European Union averaged 231.
These figures cover manufacturing as a whole, not food alone, but they show how widespread industrial automation has become. For the companies building these machines, see the top robotics companies in the USA.
What Are the Main 3D Food Printing Methods?
3D food printing is the manufacture of food products using additive manufacturing techniques, usually by depositing food layer by layer through a food-grade nozzle. The main methods are:
- Extrusion: soft or melted food is pushed through a nozzle; this is the most common method and the one used by home printers.
- Selective laser sintering: a laser bonds powdered ingredients, used mainly for sugar and candy.
- Binder jetting: a liquid binder joins layers of powder without heat.
- Inkjet printing: edible ink is applied to a food’s surface for decoration.
Milestones include Cornell University’s Fab@Home in 2006, the first multi-material 3D printer to print food; Choc Edge in 2012, the first commercially available 3D chocolate printer; a pasta printer from TNO and Barilla in 2015; and Revo Foods’ 3D-printed salmon alternative in 2023, described as the first 3D-printed food product released in supermarkets. NASA has also explored 3D-printed food for space missions. For how additive manufacturing compares with other production methods, see CNC machining vs 3D printing vs injection molding.
Is Cultivated Meat a Food Tech Trend?
Cultivated (lab-grown) meat is a newer food technology trend that has moved from research into regulated sale in a few markets. Key approvals include:
- Singapore, December 2020: the Singapore Food Agency approved Eat Just’s cultivated chicken, the first cultivated meat product to pass a food regulator’s safety review.
- United States, June 2023: the USDA approved cultivated chicken from Upside Foods and Good Meat; in May 2025 the FDA cleared Wildtype’s cultivated coho salmon.
- Australia and New Zealand, April 2025: Vow’s cultivated quail was approved for sale.
Not every government welcomes it. Alabama has banned the manufacture and sale of cultivated meat since October 2024, and Florida has a ban that Upside Foods challenged in court in August 2024. Rules differ by country and change often, so check local regulations before planning a product.
Frequently Asked Questions
What are the latest technology trends in the food and beverage industry?
The leading food and beverage technology trends are restaurant digitization, digital food management using big data and AI, food waste reduction systems, robotics and automation, and 3D food printing. Cultivated meat and other alternative proteins are a newer trend that some regulators have approved.
How did COVID-19 change the food and beverage industry?
COVID-19 pushed food and beverage businesses toward contactless service. Restaurants adopted digital menus, self-service kiosks, cashless payments and curbside pickup to follow social distancing guidelines, and many of these tools have remained in use.
How much food is wasted globally each year?
About 1.05 billion tonnes of food was wasted in 2022, according to UNEP’s Food Waste Index Report 2024. That is about 132 kilograms per person and almost one-fifth of food available to consumers, with households responsible for 60%.
How are robots used in the food industry?
Robots in the food industry handle tasks such as food handling, warehouse monitoring and tagging, burger-flipping and mass production. Some hotels and restaurants also use robots for service, aiming to improve speed, safety and convenience.
Is 3D-printed food safe to eat?
3D-printed food is made from edible ingredients deposited layer by layer through food-grade equipment, so its safety depends on the ingredients and hygiene, as with any food. Products sold commercially must meet the food safety rules of the country where they are sold.
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