Food Engineer Career Path Guide

Food Engineers apply engineering principles to the development, production, and preservation of food products. They work collaboratively to ensure food safety, quality, and sustainability by optimizing food processing techniques, designing equipment, and innovating packaging solutions. Their expertise bridges food science, technology, and industrial engineering to meet consumer demands and regulatory standards globally.

6%

growth rate

$85,000

median salary

remote-friendly

πŸ“ˆ Market Demand

Low
High
High

The demand for Food Engineers is currently high due to increasing complexity in food processing, evolving consumer health demands, and growing emphasis on sustainability. Advances in automation and novel food technologies also create new roles, driving consistent industry recruitment.

πŸ‡ΊπŸ‡Έ Annual Salary (US, USD)

60,000β€”110,000
Median: $85,000
Entry-Level
$67,500
Mid-Level
$85,000
Senior-Level
$102,500

Top 10% of earners in this field can expect salaries starting from $110,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Food Engineer Role

Food Engineers play a pivotal role in transforming raw agricultural materials into safe, nutritious, and appealing food products through innovative engineering solutions. Their work spans from product development, process design, and quality control to sustainability efforts and packaging optimization. They combine the knowledge of food chemistry, microbiology, and engineering disciplines like mechanical, chemical, and electrical engineering to solve complex challenges related to food safety, shelf life, and mass production.

The job requires a deep understanding of how ingredients interact during various manufacturing processes such as heating, cooling, mixing, fermenting, and drying. Food Engineers evaluate and implement technologies to enhance production efficiency and maintain consistent product quality while minimizing waste and environmental impact. They often use advanced equipment and computerized systems to monitor parameters and optimize operations.

Food Engineers also collaborate extensively with research and development teams, regulatory bodies, and quality assurance departments to ensure new products comply with safety standards and consumer health regulations. They innovate sustainable packaging solutions that protect food while reducing ecological footprints. Their work environments can vary from laboratories to manufacturing plants, research institutions, and even offices where design and project management take place.

Global food demand shifts and growing awareness around food safety, nutrition, and sustainability are leading the field toward adopting green technologies, automation, and digitization such as Industry 4.0 practices. Food Engineers often participate in multidisciplinary teams tasked with addressing global challenges like food security, reducing food waste, and improving nutritional profiles. Their ability to apply engineering tools to biological systems and food materials makes them vital contributors in both industrial and research-driven settings.

Key Responsibilities

  • Design and optimize food processing systems and manufacturing workflows.
  • Develop new food products and improve existing formulations with engineering considerations.
  • Monitor and control production systems to ensure consistent product quality and safety.
  • Implement food safety protocols and regulatory compliance measures throughout production.
  • Select and maintain equipment used in food processing and packaging.
  • Conduct trials and pilot testing to scale food processes from lab to industrial production.
  • Collaborate with microbiologists, nutritionists, and chemists during product development.
  • Analyze process data to improve efficiency, reduce energy consumption, and minimize waste.
  • Develop sustainable packaging solutions that extend shelf life and reduce environmental impact.
  • Research and apply emerging technologies such as automation, clean label ingredients, and novel preservation methods.
  • Troubleshoot operational issues and perform root cause analysis in production environments.
  • Assist with quality assurance and control measures through statistical process control techniques.
  • Write technical documentation, validation reports, and process guidelines.
  • Stay up-to-date with food industry regulations, standards, and technological advancements.
  • Train production staff on equipment use, safety procedures, and best practices.

Work Setting

Food Engineers often split their time between research laboratories, pilot plants, manufacturing facilities, and office settings. In laboratories, they conduct experiments and analyze food properties, which require strict adherence to safety protocols. Factory floors expose them to noisy, temperature-controlled, and fast-paced environments where machinery operates and production teams coordinate. These environments demand physical presence and vigilant safety practices. In offices, food engineers focus on data analysis, process design using CAD or simulation software, and collaboration through meetings or presentations. Roles in R&D or corporate settings may involve more desk-based work with fewer environmental hazards. Depending on the specific industry or company, food engineers may work standard business hours or shifts aligning with production schedules. The field requires flexibility as projects often overlap between conceptual innovation and on-site troubleshooting.

Tech Stack

  • Computer-Aided Design (CAD) Software (e.g., AutoCAD, SolidWorks)
  • Process Simulation Software (e.g., Aspen Plus, SuperPro Designer)
  • Statistical Software (e.g., Minitab, JMP)
  • PLC Programming and Control Systems
  • Data Acquisition Systems
  • Spectrophotometers
  • Chromatography Instruments (GC, HPLC)
  • Thermal Processing Equipment
  • Industrial Mixers and Homogenizers
  • Pasteurizers and Sterilizers
  • Drying and Dehydration Systems
  • Packaging Machinery
  • Food Safety Management Software (HACCP, ISO standards)
  • Project Management Platforms (e.g., MS Project, Jira)
  • Lean Manufacturing Tools
  • Robotics and Automation Tools
  • Quality Control Instruments and Sensors
  • Environmental Monitoring Systems
  • Food Texture Analyzers
  • Bioprocessing Equipment

Skills and Qualifications

Education Level

Most Food Engineers hold at least a bachelor's degree in food engineering, food science and technology, chemical engineering with a food focus, or a related branch of engineering. Coursework usually includes food chemistry, microbiology, thermodynamics, process engineering, materials science, and product development. A strong foundation in mathematics, chemistry, physics, and biology is essential. Advanced degrees such as a master's or PhD often open doors to specialized R&D roles or academia. Certifications such as HACCP, Six Sigma, or Lean Manufacturing are highly valued for ensuring food safety and process quality expertise. Engineering licensure (PE) can be advantageous for certain roles that require project oversight or regulatory compliance.

Recruiters look for candidates with demonstrated problem-solving abilities, experience with food process design, and familiarity with industry regulations. Internships or cooperative education (co-op) programs at food manufacturing companies provide critical hands-on experience. Strong communication skills are required to work effectively with cross-functional teams and report findings. Professional organizations like the Institute of Food Technologists (IFT) and the International Union of Food Science and Technology (IUFoST) offer excellent networking and certification opportunities to supplement formal education.

Tech Skills

  • Food process design and optimization
  • Knowledge of food safety standards (HACCP, FDA, USDA regulations)
  • Thermal processing techniques (pasteurization, sterilization)
  • Chemical and microbiological analysis
  • Computer-Aided Design (CAD)
  • Data analysis and statistical process control
  • Automation and PLC programming
  • Packaging technology
  • Product formulation and development
  • Thermodynamics and heat transfer
  • Process simulation software
  • Bioprocess engineering principles
  • Quality assurance and control methodologies
  • Lean manufacturing and Six Sigma
  • Basic programming for data collection (Python, R)
  • Robotics and process automation
  • Material science for food contact surfaces
  • Environmental compliance and waste management
  • Food texture and rheology evaluation
  • Project management

Soft Abilities

  • Problem-solving skills
  • Effective communication
  • Teamwork and collaboration
  • Attention to detail
  • Adaptability and flexibility
  • Critical thinking
  • Time management
  • Creativity and innovation
  • Leadership potential
  • Customer-oriented mindset

Path to Food Engineer

Starting a career as a Food Engineer begins with obtaining a solid educational foundation in food engineering or a closely related discipline such as chemical engineering or food science. Pursuing a bachelor’s degree accredited by recognized bodies ensures access to comprehensive coursework covering both engineering fundamentals and food-specific topics.

Building practical experience through internships, co-op programs, or research projects during studies is essential. These placements allow students to apply theory into real-world food production environments, gain familiarity with industry-standard equipment, and develop professional networks. It’s advisable to seek internships at food manufacturing plants, R&D laboratories, or companies specializing in food technology.

Investing time in obtaining certifications related to food safety, quality control, or process improvement adds significant value to a resume. Certifications such as HACCP, Six Sigma Green Belt, or Lean Manufacturing Techniques help differentiate candidates and signal commitment to industry best practices.

Once formally educated and skilled, entry-level Food Engineers usually start as process engineers, quality assurance engineers, or research assistants. Ongoing professional development through workshops, attending industry conferences, and subscribing to journals helps keep knowledge current for technological advancements and regulatory updates.

Over time, advancing to senior or managerial roles involves gaining leadership experience, mastering project management, and specializing in areas such as packaging innovation, sustainability, or automation. Many Food Engineers choose to pursue graduate degrees focused on specific research areas or business management credentials to accelerate career growth.

Networking within professional associations like the Institute of Food Technologists (IFT) can open doors to mentorships, job opportunities, and collaborative research projects. Aspiring Food Engineers should nurture both their technical competencies and interpersonal abilities since the role demands working across diverse teams including scientists, plant managers, and marketing professionals.

Required Education

A typical educational path begins with enrolling in a Bachelor of Science program in Food Engineering, Food Science and Technology, Chemical Engineering with a food processing focus, or a related field. These undergraduate programs usually span four years and combine core engineering concepts with specialized classes in food chemistry, microbiology, processing technologies, and quality control. Students develop a solid base in mathematics, physics, biology, and chemistry to understand the science behind food transformation.

Graduate study options include Master’s or Doctorate degrees focusing on advanced topics such as food process optimization, bioprocess engineering, food packaging innovation, sensory science, or food safety regulations. These programs often include research projects, offering a gateway into more sophisticated product development or academic careers.

Professional certifications complement formal education by emphasizing practical skills and regulatory knowledge. The HACCP certification (Hazard Analysis and Critical Control Points) is foundational and widely required across the food industry for safety assurance roles. Lean Six Sigma certifications enable Food Engineers to implement efficient, waste-reducing manufacturing processes.

Continuous training in software tools such as CAD, process simulation packages, and data analytics platforms is recommended to stay relevant. Workshops and online courses provide convenient avenues for upskilling in emerging fields like automation, robotics, and sustainable packaging.

Many universities and food technology institutions collaborate with industry partners to integrate real-world case studies and internships within the curriculum. Such exposure is critical for practical skills development and smooth transition into professional roles after graduation.

Additionally, professional organizations like the Institute of Food Technologists (IFT) offer certifications, webinars, and networking that support lifelong learning and career advancement within the food engineering domain.

Career Path Tiers

Junior Food Engineer

Experience: 0-2 years

At this entry-level position, Junior Food Engineers work under close supervision to assist with process monitoring, equipment maintenance, and data collection in food production environments. They support senior engineers in conducting experiments, running pilot tests, and implementing quality control measures. Their responsibilities include documenting procedures, ensuring adherence to food safety protocols, and learning to analyze process efficiency. This stage focuses on building foundational technical expertise and gaining familiarity with regulatory frameworks and standard operating procedures.

Mid-Level Food Engineer

Experience: 3-7 years

Mid-Level Food Engineers take on greater responsibility for designing and optimizing food manufacturing processes. They lead small projects, develop new product formulations, and troubleshoot operational issues in production plants. Collaboration with cross-functional teams becomes more integral as they contribute to process improvement initiatives, equipment selection, and validation activities. These engineers also participate in developing sustainability programs and enhancing packaging technologies while mentoring junior staff members. Their role demands strong analytical skills and effective communication.

Senior Food Engineer

Experience: 8-15 years

Senior Food Engineers oversee large-scale projects involving new product launches, factory automation, or regulatory compliance upgrades. They manage multidisciplinary teams, coordinate research and development efforts, and liaise with external stakeholders including suppliers and regulatory agencies. Expertise in advanced food processing technologies and innovation is essential. These leaders guide strategic decisions impacting production costs, quality standards, and environmental sustainability. They also contribute to policy formation and represent the company at industry conferences.

Lead Food Engineer / Food Engineering Manager

Experience: 15+ years

Leads or Food Engineering Managers set the technical vision for entire product lines or manufacturing operations. They formulate long-term strategies around process automation, digital transformation, and sustainable sourcing. Their leadership includes overseeing budgets, risk assessments, and compliance with international food safety regulations. These professionals mentor engineering teams, foster innovation cultures, and align engineering goals with business objectives. They often engage with C-suite executives and serve as industry thought leaders.

Global Outlook

The food engineering profession holds significant global opportunities as the food industry expands across continents to meet increasing population demands and stricter safety standards. Emerging economies in Asia (China, India, Southeast Asia) offer rapid industrial growth and expanding middle-class markets, creating demand for modern food manufacturing and preservation techniques. European countries like Germany, the Netherlands, and Denmark lead innovation in sustainable food processing and packaging solutions, presenting attractive prospects for specialists focused on green technologies.

North America remains a hub for food engineering jobs spanning from startups innovating plant-based alternatives to large multinational corporations optimizing supply chains. The United States and Canada offer strong career avenues with competitive salaries, rigorous regulatory environments, and advanced research institutions. Brazil and Mexico are growing emerging markets with developing food industries needing engineering expertise to improve safety and export quality.

Cross-border collaboration is common as food safety regulations and quality demands converge globally through standards like Codex Alimentarius and FDA regulations harmonized with international guidelines. Food Engineers proficient in regulatory frameworks, language skills, and cultural adaptability often find international assignments or roles in multinational companies.

Sustainability trends and the push for alternative proteins, automation, and digital food tracing heighten the global demand for engineers skilled in cutting-edge technologies. Worldwide, food engineers contribute to enhancing food security, reducing waste, and designing eco-friendly processes, underscoring the profession’s growing international relevance. Flexibility to move across continents and adapt skills to local market needs expands career possibilities dramatically.

Job Market Today

Role Challenges

Food Engineers face complex challenges navigating rapidly evolving consumer preferences, stringent safety regulations, and tighter sustainability standards. The surge in plant-based products, clean label demands, and allergen management requires continual adaptation of processing methods and materials. Balancing cost efficiency with environmental impact reduction is increasingly difficult as companies prioritize green packaging and energy-efficient operations. Additionally, global supply chain disruptions and raw material variability affect consistent production quality and scalability. Integrating automation and data analytics tools while ensuring workforce readiness also poses a significant challenge, requiring ongoing training and investment.

Growth Paths

Expansion in functional foods, alternative proteins, and personalized nutrition drives growth opportunities within food engineering. The digital transformation of manufacturing plants, including Industry 4.0 techniques like IoT sensors and AI-driven quality control, offers new career paths focused on smart production. Rising consumer interest in sustainability fosters roles related to biodegradability of packaging, water and energy management, and reducing food waste downstream. Emerging markets continue industrializing their food sectors, creating demand for expert engineers to modernize processes and ensure global safety standards compliance. Collaborative innovation with biotech and materials science opens frontiers in novel food textures and preservation methods.

Industry Trends

Key trends shaping food engineering include automation and robotics integration in factories, enabling more precise and efficient operations. Digitally connected systems provide real-time monitoring to reduce contamination risks and optimize resource consumption. Sustainability is a dominant trend, reflected in the rise of circular economy principles applied to food production and packaging. The demand for plant-based and cultured meat alternatives pushes advances in bioprocess engineering. Regulatory shifts emphasize the need for transparent supply chains, traceability, and allergen control. Adoption of novel preservation technologies such as high-pressure processing and pulsed electric fields enhances product shelf life without additives. Collaborative cross-sector innovation, including AI-driven product formulation, is gaining traction.

A Day in the Life

Morning (9:00 AM - 12:00 PM)

Focus: Process Monitoring & Data Review
  • Review production data and quality control reports from overnight shifts.
  • Analyze sensor outputs and batch logs for deviations or anomalies.
  • Conduct meetings with the production team to discuss performance and immediate issues.
  • Perform site inspections of processing equipment and critical control points.

Afternoon (12:00 PM - 3:00 PM)

Focus: Research & Development and Process Design
  • Design or modify production processes based on latest project parameters.
  • Run pilot trials for new product formulations or packaging materials.
  • Coordinate with R&D, quality assurance, and procurement teams.
  • Optimize energy consumption and pay attention to waste reduction initiatives.

Late Afternoon (3:00 PM - 6:00 PM)

Focus: Documentation & Collaboration
  • Prepare technical documentation, validation protocols, and compliance reports.
  • Participate in cross-departmental strategy sessions or regulatory updates.
  • Plan and schedule maintenance for processing machinery.
  • Attend training or professional development webinars.

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

Food Engineers typically enjoy a balanced workload, with occasional periods of heightened stress during product launches, audits, or process troubleshooting. Regularly working in team environments with set shifts in production facilities supports predictable schedules. While some roles may require overtime or weekend work to resolve manufacturing issues or meet deadlines, most companies emphasize employee well-being. The combination of office work and on-site activities also helps vary the daily routine.

Skill Map

This map outlines the core competencies and areas for growth in this profession, showing how foundational skills lead to specialized expertise.

Foundational Skills

The essential technical and analytical skills every Food Engineer must master to function effectively.

  • Understanding of Food Chemistry and Microbiology
  • Basic Process Engineering Principles
  • Knowledge of Food Safety Standards (HACCP, FDA regulations)
  • Heat Transfer and Mass Transfer Fundamentals
  • Material Science for Food Contact Surfaces

Specialization Paths

Areas to specialize in after grasping the fundamentals to increase expertise and value.

  • Thermal Processing Design and Validation
  • Automation and Control Systems (PLC programming)
  • Sustainable Packaging Innovation
  • Bioprocess Engineering and Fermentation Technologies
  • Process Simulation and Optimization Software

Professional & Software Skills

Tools and soft skills crucial for professional success and collaboration.

  • Proficiency with CAD and Process Simulation Software
  • Statistical Process Control and Data Analysis (Minitab, Excel)
  • Project Management and Team Collaboration
  • Effective Communication and Report Writing
  • Problem-solving and Critical Thinking

Pros & Cons for Food Engineer

βœ… Pros

  • Opportunities to impact global food safety and nutrition positively.
  • Diverse career paths ranging from R&D to production and sustainability.
  • Work involves a blend of laboratory research, engineering design, and fieldwork.
  • Roles often provide competitive salaries and benefits.
  • Growing demand linked to food industry innovation and expanding markets.
  • Chance to work on cutting-edge technologies such as automation and alternative proteins.

❌ Cons

  • Exposure to noisy, temperature-controlled, or fast-paced factory environments.
  • High responsibility for ensuring strict compliance with safety regulations.
  • Managing supply chain disruptions or raw material variability can be stressful.
  • Sometimes needs to balance competing priorities between cost, quality, and sustainability.
  • Can require on-call availability during production emergencies.
  • Continuous learning necessary to keep abreast of evolving regulations and technologies.

Common Mistakes of Beginners

  • Underestimating the complexity of food safety regulations and compliance.
  • Lacking practical hands-on experience with food processing equipment.
  • Failing to integrate multidisciplinary knowledge from chemistry, microbiology, and engineering.
  • Overlooking the importance of documentation and traceability.
  • Ignoring sustainability and environmental impact when designing processes.
  • Not developing effective communication skills for collaboration with non-engineers.
  • Relying too heavily on theoretical knowledge without adapting to real-world production constraints.
  • Being slow to adopt new digital tools and automation technology.

Contextual Advice

  • Seek internships early to gain exposure to real-world food manufacturing processes.
  • Learn and continuously update knowledge of food safety standards and regulations.
  • Develop strong analytical skills to interpret process data effectively.
  • Build interdisciplinary expertise by collaborating with chemists, microbiologists, and quality specialists.
  • Prioritize hands-on experience with processing equipment and pilot plants.
  • Stay current with emerging technologies like Industry 4.0 and sustainable packaging innovations.
  • Cultivate communication and teamwork skills for successful cross-functional projects.
  • Be proactive in professional networking through industry groups and certifications.

Examples and Case Studies

Optimizing Pasteurization Processes for Shelf Life Extension

A multinational dairy company faced challenges with shelf life inconsistencies and bacterial contamination in packaged milk products. Food Engineers conducted thorough thermal process audits, implemented real-time temperature monitoring sensors, and redesigned heat exchanger systems to ensure uniform pasteurization. Pilot testing validated a new process that reduced heat damage to nutrients while extending shelf life by 30%. The improvements decreased product returns and enhanced consumer trust.

Key Takeaway: Integrating sensor technology with process design can significantly improve food safety and product quality while reducing costs.

Sustainable Packaging Initiative in a Snack Food Manufacturer

To meet environmental regulations and consumer demand for eco-friendly products, a snack company collaborated with Food Engineers to develop biodegradable packaging. The project involved selecting plant-based polymers that maintained barrier properties and designing machinery adjustments for the new materials. Life cycle assessments confirmed a 40% reduction in carbon footprint. The packaging launch boosted brand reputation and opened markets with green procurement policies.

Key Takeaway: Sustainable packaging innovations require both material science understanding and engineering adjustments to production lines.

Automation Implementation in Beverage Production

A beverage manufacturer sought to improve production efficiency and reduce human error. Food Engineers led installation of automated filling and capping systems integrated with PLC controls. They developed protocols for data collection and analyzed bottlenecks using simulation software. The facility achieved a 20% increase in throughput and significant quality consistency improvements within the first year post-automation.

Key Takeaway: Cross-disciplinary skills in automation and data analytics are vital for modern food engineering roles.

Portfolio Tips

A strong portfolio unveils the depth and range of your experience as a Food Engineer. Focus on showcasing projects that highlight your problem-solving capabilities, process improvements, and technical proficiencies. Include detailed project summaries, outlining objectives, methodologies, tools used, challenges faced, and quantifiable results such as efficiency gains, waste reduction, or cost savings.

Visuals can significantly enhance your portfolioβ€”photos or diagrams of equipment designs, process flowcharts, data analysis graphs, and images from pilot plant trials provide concrete evidence of your hands-on experience. When possible, incorporate multimedia such as videos demonstrating equipment usage or process simulations.

Highlight interdisciplinary collaboration by describing your role within cross-functional teams alongside microbiologists, quality assurance specialists, and product developers. Include certifications, software proficiencies, and continuing education activities to display commitment to professional growth.

Tailor your portfolio to the specific job or sector by emphasizing relevant experience, whether it’s thermal process design, packaging innovation, or automation implementation. Maintain clarity and technical accuracy but ensure your presentations are accessible to both technical and managerial reviewers.

Online portfolio platforms can enhance visibility, while printable formats serve traditional interview settings. Regularly update your portfolio as you gain new accomplishments and skills. Lastly, seek feedback from mentors or peers to polish your narrative and presentation.

Job Outlook & Related Roles

Growth Rate: 6%
Status: Growing faster than average
Source: U.S. Bureau of Labor Statistics

Related Roles

Frequently Asked Questions

What is the difference between a Food Engineer and a Food Scientist?

Food Engineers focus primarily on applying engineering principles to design, optimize, and scale food manufacturing processes and equipment, whereas Food Scientists concentrate more on the biochemical and microbiological aspects of food, such as analyzing nutrients, flavors, and food safety at a molecular level. However, there is significant overlap, and professionals often collaborate closely.

Is certification required to become a Food Engineer?

Certification is not typically mandatory but is highly advantageous. Certifications such as HACCP, Six Sigma, and Lean Manufacturing signal specialized knowledge in food safety and process optimization, making candidates more competitive. Professional engineering licensure (PE) may be required for certain senior roles involving project sign-offs.

What industries employ Food Engineers?

Food Engineers work in diverse sectors including dairy, meat processing, beverages, bakery, confectionery, ready-to-eat meals, plant-based foods, and packaging manufacturing. They are also present in research institutions, government agencies, quality assurance firms, and equipment manufacturing companies.

What software tools should a Food Engineer master?

Key software includes Computer-Aided Design (CAD) like AutoCAD or SolidWorks for equipment and facility design; process simulation tools such as Aspen Plus; statistical software like Minitab for quality control; and PLC programming tools for automation. Additionally, data analysis tools like Excel or Python are valuable.

How important is hands-on experience in this career?

Hands-on experience is critical. Working directly with processing equipment, running pilot plant trials, and troubleshooting production lines develop an intuitive understanding of processes that cannot be fully grasped through theory alone. Internships and cooperative education opportunities provide essential practical exposure.

What are emerging trends Food Engineers should watch?

Trending areas include automation and Industry 4.0 integration, sustainable and biodegradable packaging, alternative protein processing technologies, novel preservation methods like high-pressure processing, and digital traceability systems. Emphasis on reducing environmental footprint is also accelerating innovation.

Can Food Engineering roles be remote?

Most Food Engineering jobs require physical presence due to the need for equipment oversight, plant visits, and hands-on testing. Some R&D, data analysis, and design roles offer limited remote flexibility, but fully remote positions are relatively rare.

What common mistakes do new Food Engineers make?

Common pitfalls include underestimating the complexity of regulatory compliance, ignoring practical aspects of scaling laboratory results to industrial production, insufficient interdepartmental communication, and a hesitancy to embrace emerging technologies and sustainability practices.

How can Food Engineers contribute to sustainability?

They can design processes that reduce energy and water consumption, develop biodegradable packaging, improve waste management, optimize supply chains for less loss, and innovate preservation techniques that decrease the need for additives and extend shelf life, thus reducing food waste.

Sources & References

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