This document discusses standards and regulations for plastics used in food packaging in India. It begins by defining standards and standardization. It then discusses the growth of plastic packaging and the role of standards in ensuring food safety and facilitating domestic and international trade. The rest of the document outlines various Indian standards set by the Bureau of Indian Standards regarding specifications for food contact plastics and packaging, test methods, and standards for specific food products and packaging materials.
The document discusses various topics related to food packaging including:
1. The packaging sector represents 2% of GDP in developed countries and packaging ensures delivery of goods in the best condition for use.
2. Packaging performs functions of containment, protection, convenience, and communication in physical, ambient, and human environments.
3. Smart packaging includes active packaging that enhances performance and intelligent packaging that provides information on package history and food quality.
This topic comes under PRODUCT DEVELOPMENT AND TECHNOLOGY TRANSFER......
This is useful for M.Pharm (Pharmaceutical Quality Assurance) Students who studying in First year sem II and also for b.pharm and medical related students.
This Presentation Contain following...
#Introduction
#Objectives
#Process Flow
#Working of aseptic process
#Sterilization of Equipments
#Sterilization of Product
#Sterilization of container or packaging materials
#Aseptic packaging of Milk
#Packaging materials
#Aseptic packaging systems
#Benefits of aseptic packaging systems
#Storage
#References
The document discusses methods for testing the water vapour transmission rate (WVTR) and oxygen transmission rate (OTR) of materials. It describes how WVTR is measured through containers using a test apparatus that places material samples between a desiccant and humid environment. OTR is measured similarly using an electrolytic sensor to detect oxygen permeating through materials. Factors like material thickness, humidity, and temperature that affect transmission rates are identified. Standards for conducting these transmission tests are also outlined.
Aseptic packaging involves sterilizing products and packaging materials under sterile conditions to prevent contamination and extend shelf life without refrigeration. It allows foods to be stored at ambient temperatures for months. The key aspects are pre-sterilizing the product using techniques like UHT and sterilizing packaging materials using methods like heat, chemicals, or radiation. Filled packages are then sealed quickly to maintain sterility. Common packaging types for aseptic storage include cartons, bags, bottles and cans. Aseptic packaging provides benefits like convenience, food safety, long shelf life and nutrient retention compared to canning.
This document discusses various tests that are conducted on food packaging materials and packages. Some key tests mentioned include thickness testing, which measures the thickness of materials like paper and film using a dial or digital gauge under a constant pressure. Pinhole testing checks for pinholes in aluminum foil laminates, which can impact barrier properties. Peel or delamination testing measures the bond strength between layers in laminates. Seal strength testing determines the force required to separate seals in flexible pouches and laminates. Permeation tests quantify the barrier properties of plastic films to moisture vapor and gases like oxygen.
Smart and active packaging systems can incorporate sensors, indicators, and other technologies to monitor food quality and safety throughout the supply chain. Common functions of intelligent packaging include sensing oxygen, carbon dioxide, moisture, pathogens, and temperature to provide information on food freshness and detect potential issues. Key components include gas sensors, biosensors, time-temperature indicators, and RFID tags. Indicators produce a visible color change in response to chemical reactions to provide information on conditions inside the package. Active packaging technologies like oxygen scavengers and antimicrobial agents are designed to prolong shelf-life by absorbing or releasing specific gases.
Packaging is best described as a coordinated system of
preparing goods for transport, distribution, storage,
retailing, and use of the goods. Contains, Types, Procedure of manufacturing the plastics, Advantages & Disadvantages.
A retort pouch or retortable pouch is a type of food packaging made from a laminate of flexible plastic and metal foils. It allows the sterile packaging of a wide variety of food and drink handled by aseptic processing, and is used as an alternative to traditional industrial canning methods
The document discusses various topics related to food packaging including:
1. The packaging sector represents 2% of GDP in developed countries and packaging ensures delivery of goods in the best condition for use.
2. Packaging performs functions of containment, protection, convenience, and communication in physical, ambient, and human environments.
3. Smart packaging includes active packaging that enhances performance and intelligent packaging that provides information on package history and food quality.
This topic comes under PRODUCT DEVELOPMENT AND TECHNOLOGY TRANSFER......
This is useful for M.Pharm (Pharmaceutical Quality Assurance) Students who studying in First year sem II and also for b.pharm and medical related students.
This Presentation Contain following...
#Introduction
#Objectives
#Process Flow
#Working of aseptic process
#Sterilization of Equipments
#Sterilization of Product
#Sterilization of container or packaging materials
#Aseptic packaging of Milk
#Packaging materials
#Aseptic packaging systems
#Benefits of aseptic packaging systems
#Storage
#References
The document discusses methods for testing the water vapour transmission rate (WVTR) and oxygen transmission rate (OTR) of materials. It describes how WVTR is measured through containers using a test apparatus that places material samples between a desiccant and humid environment. OTR is measured similarly using an electrolytic sensor to detect oxygen permeating through materials. Factors like material thickness, humidity, and temperature that affect transmission rates are identified. Standards for conducting these transmission tests are also outlined.
Aseptic packaging involves sterilizing products and packaging materials under sterile conditions to prevent contamination and extend shelf life without refrigeration. It allows foods to be stored at ambient temperatures for months. The key aspects are pre-sterilizing the product using techniques like UHT and sterilizing packaging materials using methods like heat, chemicals, or radiation. Filled packages are then sealed quickly to maintain sterility. Common packaging types for aseptic storage include cartons, bags, bottles and cans. Aseptic packaging provides benefits like convenience, food safety, long shelf life and nutrient retention compared to canning.
This document discusses various tests that are conducted on food packaging materials and packages. Some key tests mentioned include thickness testing, which measures the thickness of materials like paper and film using a dial or digital gauge under a constant pressure. Pinhole testing checks for pinholes in aluminum foil laminates, which can impact barrier properties. Peel or delamination testing measures the bond strength between layers in laminates. Seal strength testing determines the force required to separate seals in flexible pouches and laminates. Permeation tests quantify the barrier properties of plastic films to moisture vapor and gases like oxygen.
Smart and active packaging systems can incorporate sensors, indicators, and other technologies to monitor food quality and safety throughout the supply chain. Common functions of intelligent packaging include sensing oxygen, carbon dioxide, moisture, pathogens, and temperature to provide information on food freshness and detect potential issues. Key components include gas sensors, biosensors, time-temperature indicators, and RFID tags. Indicators produce a visible color change in response to chemical reactions to provide information on conditions inside the package. Active packaging technologies like oxygen scavengers and antimicrobial agents are designed to prolong shelf-life by absorbing or releasing specific gases.
Packaging is best described as a coordinated system of
preparing goods for transport, distribution, storage,
retailing, and use of the goods. Contains, Types, Procedure of manufacturing the plastics, Advantages & Disadvantages.
A retort pouch or retortable pouch is a type of food packaging made from a laminate of flexible plastic and metal foils. It allows the sterile packaging of a wide variety of food and drink handled by aseptic processing, and is used as an alternative to traditional industrial canning methods
This document discusses pharmaceutical packaging materials and their evaluation. It introduces the need for packaging in protecting pharmaceutical products and providing information. The main types of primary packaging materials discussed are glass, plastics, metals, films and foils, elastomeric closures. Secondary and tertiary packaging materials are also mentioned. Various tests for evaluating the different materials are summarized such as permeability and mechanical tests.
This document provides information on various metal packaging materials used for food, including steel, aluminum, tin, and chromium coatings. It discusses the manufacturing processes for these materials, including electrolytic tinplate production, electrolytic chromium coating of steel, and aluminum alloy production. The document also covers recycling of metal packaging and manufacturing processes for cans, including the different types of cans and their material compositions.
This document discusses aseptic processing and packaging. Aseptic processing involves sterilizing products, packaging materials, and facilities to prevent contamination. It results in shelf-stable products sealed in sterile packaging without refrigeration. The process includes UHT sterilization, filling in sterile environments, and hermetically sealed packages. Hyosung built Korea's first complete aseptic production facility with an annual capacity of 315 million bottles and state-of-the-art technology from preforms to filling. Aseptic packages provide benefits of portability, food safety from bacteria, and retaining more nutrients compared to canning.
This document discusses various ancillary materials required for packaging. It describes the functions of ancillary materials in providing product-package compatibility, preservation, protection, identification, convenience and consumer protection. The main ancillary materials discussed are adhesives, printing inks, labels, caps and closures, and reinforcement materials like tapes and straps. For each material, the document discusses different types, classifications, raw materials used, and applications in packaging.
This document discusses food packaging. It provides definitions of food packaging from various sources and notes its importance in preservation, protection, convenience, communication/marketing, and facilitating handling. Food packaging helps prevent damage, contamination, and physical and chemical changes to foods. It also reduces waste for many foods like cucumbers, grapes, prepared salads, and bananas by extending shelf life. Concerns about food packaging include deceptive packaging, overpackaging, and environmental issues from waste disposal and materials that are not biodegradable or recyclable.
The document discusses testing of various packaging materials. It covers testing of flexible packaging materials like paper, plastics films and aluminum foil. It also discusses testing of rigid packaging materials such as glass containers, metal containers and plastic containers. Some key tests covered for glass containers include visual defects inspection, dimensions testing, capacity measurement, mechanical impact strength testing, annealing, thermal shock testing and hydrostatic pressure testing. The document emphasizes the importance of conditioning samples in a standard atmosphere prior to testing.
This document discusses flavor absorption by plastic packaging materials. It finds that polyolefins like LLDPE and PP absorb flavors to a much higher degree than polyesters like PC, PET, and PEN. Absorption is influenced by properties of the polymer like glass transition temperature and crystallinity, as well as properties of the flavor molecule like concentration, polarity, and molecular size. Higher temperatures increase absorption for all materials. Polyesters are preferred over polyolefins for packaging due to their much lower absorption.
This document provides an overview of flexible packaging materials and their uses in common food products in India. It discusses the types of flexible packaging materials used for dairy products like milk, cheese and ice cream. It also discusses flexible packaging for confectionery items like chocolates, chewing gums and lollipops. Finally, it covers flexible packaging for sauces/condiments and dry food products like sugar and pasta. The document aims to analyze the packaging materials and labeling of these various food categories.
This document provides an overview of food packaging. It begins with brief introductions of the author and their background and qualifications. It then defines packaging and outlines its main functions. The document provides a brief history of important developments in food packaging. It discusses factors driving growth of the packaging industry in India and common packaging materials like glass, metal and plastic containers. It outlines requirements and types of food packaging and considerations for effective packaging. Finally, it discusses emerging packaging technologies.
Plastics, specifically thermoplastics, are widely used in food packaging due to their low cost, light weight, and versatility. The most common plastics used are polyolefins like polyethylene and polypropylene, as well as polyesters like polyethylene terephthalate. These plastics can be formed into rigid containers through blow molding or injection molding processes. Laminates and co-extruded plastics are also used to combine the properties of different materials and enhance barrier properties for food preservation. While plastics provide advantages for food packaging, some may absorb food constituents so testing is needed for food safety.
The document discusses various packaging and food processing equipment, including their working principles, advantages, and disadvantages. It covers vacuum packaging machines, form fill and seal machines, cup fillers, and automatic water bottling machines. The key points are:
- Vacuum packaging machines remove air from packages to extend food freshness and reduce spoilage. Form fill and seal machines vertically or horizontally form tubes from plastic film, fill them with products, and seal the packages.
- Cup fillers use measuring cups to volumetrically fill free-flowing products like nuts or grains. Automatic water bottling machines integrate bottle rinsing, filling, and capping into one machine to automate the water bottling process.
Flexible packaging laminates for the food sector 2013Jose Giraldez
This document provides information on flexible packaging laminates commonly used in the food sector. It lists various laminate materials like PET, OPP, PE, and aluminum that are used with different layer thicknesses, sealing materials, and printing techniques. The document then categorizes common food products and recommends suitable laminate combinations for different applications like coffee, rice, frozen foods, snacks, biscuits, and more. Key laminate materials mentioned include PET, OPP, PE, aluminum, paper, and cast polypropylene.
Corrugated fiberboard is made from three components - two linerboards bonded to either side of fluted corrugating medium. It provides cushioning and protection for packaged items. Different flute types provide varying strengths for packaging uses like canned goods, furniture or consumer goods. Quality is ensured through tests like flat crush resistance, bursting strength and puncture resistance. Recycling of corrugated fiberboard involves collection, sorting, shredding and reprocessing into new fiber.
Plastics have increasingly been used for food packaging over the last few decades due to their advantages over other materials. Plastics come into use in three phases - substitution, accommodation, and innovation - based on how designers take advantage of plastic's properties. Substitution involves direct replacement, accommodation allows for new dimensions while keeping traditional designs, and innovation creates entirely new designs based on plastic capabilities. The use of plastics for food packaging provides benefits like strength, light weight, flexibility, resistance to cracking, and acting as a barrier against gases, moisture, and flavors. Important plastic developments for food packaging include modified resins, cellophane, nylon, polyethylene, polypropylene, and polyethylene terephthalate.
This document discusses packaging materials used for spices in India. It provides details on:
1) The major types of packaging used for spices include glass bottles, flexible pouches made of laminated films such as PET, BOPP, and LDPE. These materials provide properties like barrier to moisture and gases extending shelf life.
2) The main equipment used for packaging spices are form fill seal machines and pouch packing machines which use heat sealable laminated films to package spices into pouches and bottles.
3) Key test methods evaluated packaging materials strength and integrity including squeeze tests for bottles and tear resistance and tensile strength tests for plastic films.
Plastic as a Packaging Material discusses the advantages and disadvantages of various plastic materials used for packaging. It describes common plastics like HDPE, LDPE, LLDPE, PP, PVC, nylon and polyester. The document outlines plastic processing methods like injection molding, blow molding and thermoforming. It also discusses plastic additives, defects, and their use in pharmaceutical packaging as containers, tubes, closures and blister packs.
Ralph Moyle gave a presentation at the World of Food Safety Conference in Bangkok on the risks of recycled packaging. He discussed several chemical contaminants that can migrate from packaging into food like PAA, SEM, and mineral hydrocarbon oils found in recycled paper and cardboard. Regulations on food packaging were covered for the EU, China, USA, Australia and New Zealand. Moyle recommended that companies understand the origin of their packaging, work with suppliers to ensure certification that packaging meets legal standards, and implement monitoring and auditing programs.
This document discusses risk assessment of food packaging and contact materials. It provides an overview of topics including the reasons for packaging, packaging migration factors, common packaging materials and types, regulatory approaches for food contact substances in various regions including the US, EU, Japan and others. It also outlines the types of data typically required by regulators for approval of new food contact substances, including chemistry information, migration testing conditions and protocols, and toxicology data recommendations based on expected exposure levels.
This document discusses pharmaceutical packaging materials and their evaluation. It introduces the need for packaging in protecting pharmaceutical products and providing information. The main types of primary packaging materials discussed are glass, plastics, metals, films and foils, elastomeric closures. Secondary and tertiary packaging materials are also mentioned. Various tests for evaluating the different materials are summarized such as permeability and mechanical tests.
This document provides information on various metal packaging materials used for food, including steel, aluminum, tin, and chromium coatings. It discusses the manufacturing processes for these materials, including electrolytic tinplate production, electrolytic chromium coating of steel, and aluminum alloy production. The document also covers recycling of metal packaging and manufacturing processes for cans, including the different types of cans and their material compositions.
This document discusses aseptic processing and packaging. Aseptic processing involves sterilizing products, packaging materials, and facilities to prevent contamination. It results in shelf-stable products sealed in sterile packaging without refrigeration. The process includes UHT sterilization, filling in sterile environments, and hermetically sealed packages. Hyosung built Korea's first complete aseptic production facility with an annual capacity of 315 million bottles and state-of-the-art technology from preforms to filling. Aseptic packages provide benefits of portability, food safety from bacteria, and retaining more nutrients compared to canning.
This document discusses various ancillary materials required for packaging. It describes the functions of ancillary materials in providing product-package compatibility, preservation, protection, identification, convenience and consumer protection. The main ancillary materials discussed are adhesives, printing inks, labels, caps and closures, and reinforcement materials like tapes and straps. For each material, the document discusses different types, classifications, raw materials used, and applications in packaging.
This document discusses food packaging. It provides definitions of food packaging from various sources and notes its importance in preservation, protection, convenience, communication/marketing, and facilitating handling. Food packaging helps prevent damage, contamination, and physical and chemical changes to foods. It also reduces waste for many foods like cucumbers, grapes, prepared salads, and bananas by extending shelf life. Concerns about food packaging include deceptive packaging, overpackaging, and environmental issues from waste disposal and materials that are not biodegradable or recyclable.
The document discusses testing of various packaging materials. It covers testing of flexible packaging materials like paper, plastics films and aluminum foil. It also discusses testing of rigid packaging materials such as glass containers, metal containers and plastic containers. Some key tests covered for glass containers include visual defects inspection, dimensions testing, capacity measurement, mechanical impact strength testing, annealing, thermal shock testing and hydrostatic pressure testing. The document emphasizes the importance of conditioning samples in a standard atmosphere prior to testing.
This document discusses flavor absorption by plastic packaging materials. It finds that polyolefins like LLDPE and PP absorb flavors to a much higher degree than polyesters like PC, PET, and PEN. Absorption is influenced by properties of the polymer like glass transition temperature and crystallinity, as well as properties of the flavor molecule like concentration, polarity, and molecular size. Higher temperatures increase absorption for all materials. Polyesters are preferred over polyolefins for packaging due to their much lower absorption.
This document provides an overview of flexible packaging materials and their uses in common food products in India. It discusses the types of flexible packaging materials used for dairy products like milk, cheese and ice cream. It also discusses flexible packaging for confectionery items like chocolates, chewing gums and lollipops. Finally, it covers flexible packaging for sauces/condiments and dry food products like sugar and pasta. The document aims to analyze the packaging materials and labeling of these various food categories.
This document provides an overview of food packaging. It begins with brief introductions of the author and their background and qualifications. It then defines packaging and outlines its main functions. The document provides a brief history of important developments in food packaging. It discusses factors driving growth of the packaging industry in India and common packaging materials like glass, metal and plastic containers. It outlines requirements and types of food packaging and considerations for effective packaging. Finally, it discusses emerging packaging technologies.
Plastics, specifically thermoplastics, are widely used in food packaging due to their low cost, light weight, and versatility. The most common plastics used are polyolefins like polyethylene and polypropylene, as well as polyesters like polyethylene terephthalate. These plastics can be formed into rigid containers through blow molding or injection molding processes. Laminates and co-extruded plastics are also used to combine the properties of different materials and enhance barrier properties for food preservation. While plastics provide advantages for food packaging, some may absorb food constituents so testing is needed for food safety.
The document discusses various packaging and food processing equipment, including their working principles, advantages, and disadvantages. It covers vacuum packaging machines, form fill and seal machines, cup fillers, and automatic water bottling machines. The key points are:
- Vacuum packaging machines remove air from packages to extend food freshness and reduce spoilage. Form fill and seal machines vertically or horizontally form tubes from plastic film, fill them with products, and seal the packages.
- Cup fillers use measuring cups to volumetrically fill free-flowing products like nuts or grains. Automatic water bottling machines integrate bottle rinsing, filling, and capping into one machine to automate the water bottling process.
Flexible packaging laminates for the food sector 2013Jose Giraldez
This document provides information on flexible packaging laminates commonly used in the food sector. It lists various laminate materials like PET, OPP, PE, and aluminum that are used with different layer thicknesses, sealing materials, and printing techniques. The document then categorizes common food products and recommends suitable laminate combinations for different applications like coffee, rice, frozen foods, snacks, biscuits, and more. Key laminate materials mentioned include PET, OPP, PE, aluminum, paper, and cast polypropylene.
Corrugated fiberboard is made from three components - two linerboards bonded to either side of fluted corrugating medium. It provides cushioning and protection for packaged items. Different flute types provide varying strengths for packaging uses like canned goods, furniture or consumer goods. Quality is ensured through tests like flat crush resistance, bursting strength and puncture resistance. Recycling of corrugated fiberboard involves collection, sorting, shredding and reprocessing into new fiber.
Plastics have increasingly been used for food packaging over the last few decades due to their advantages over other materials. Plastics come into use in three phases - substitution, accommodation, and innovation - based on how designers take advantage of plastic's properties. Substitution involves direct replacement, accommodation allows for new dimensions while keeping traditional designs, and innovation creates entirely new designs based on plastic capabilities. The use of plastics for food packaging provides benefits like strength, light weight, flexibility, resistance to cracking, and acting as a barrier against gases, moisture, and flavors. Important plastic developments for food packaging include modified resins, cellophane, nylon, polyethylene, polypropylene, and polyethylene terephthalate.
This document discusses packaging materials used for spices in India. It provides details on:
1) The major types of packaging used for spices include glass bottles, flexible pouches made of laminated films such as PET, BOPP, and LDPE. These materials provide properties like barrier to moisture and gases extending shelf life.
2) The main equipment used for packaging spices are form fill seal machines and pouch packing machines which use heat sealable laminated films to package spices into pouches and bottles.
3) Key test methods evaluated packaging materials strength and integrity including squeeze tests for bottles and tear resistance and tensile strength tests for plastic films.
Plastic as a Packaging Material discusses the advantages and disadvantages of various plastic materials used for packaging. It describes common plastics like HDPE, LDPE, LLDPE, PP, PVC, nylon and polyester. The document outlines plastic processing methods like injection molding, blow molding and thermoforming. It also discusses plastic additives, defects, and their use in pharmaceutical packaging as containers, tubes, closures and blister packs.
Ralph Moyle gave a presentation at the World of Food Safety Conference in Bangkok on the risks of recycled packaging. He discussed several chemical contaminants that can migrate from packaging into food like PAA, SEM, and mineral hydrocarbon oils found in recycled paper and cardboard. Regulations on food packaging were covered for the EU, China, USA, Australia and New Zealand. Moyle recommended that companies understand the origin of their packaging, work with suppliers to ensure certification that packaging meets legal standards, and implement monitoring and auditing programs.
This document discusses risk assessment of food packaging and contact materials. It provides an overview of topics including the reasons for packaging, packaging migration factors, common packaging materials and types, regulatory approaches for food contact substances in various regions including the US, EU, Japan and others. It also outlines the types of data typically required by regulators for approval of new food contact substances, including chemistry information, migration testing conditions and protocols, and toxicology data recommendations based on expected exposure levels.
The document discusses food packaging regulation. It provides an overview of key stakeholders in food packaging including consumers, government regulators, and packaging manufacturers. It outlines the primary functions of food packaging which are to protect food from contamination and preserve quality. The document also discusses trends driving innovation in food packaging and how packaging changes have driven the introduction of new food categories. It provides an overview of global regulatory scenarios for food packaging in countries like the US, EU, Canada, and India. The Indian regulatory framework and key proposed changes to regulations are also summarized.
This document discusses the increasing regulatory requirements and risks around flexible food packaging. It notes that brand owners are demanding more testing and transparency from suppliers to ensure packaging safety. Material suppliers must understand how their products will be used and potential hazards to determine if they are suitable. The document also summarizes key regulations for food packaging in the US and EU and discusses approaches for determining if a product is suitable for a given use in the absence of specific regulations, including understanding the product formulation, end use conditions, potential migration, and risk assessment.
With 35+ years of experience across the food science and packaging spectrum, Dr Claire Sand, owner and founder of Packaging Technology & Research, helps clients achieve
more sustainable packaging,
increase shelf life/prevent food waste,
leverage food packaging innovations,
address food package optimization
and serves the food and packaging industry as
a food packaging expert witness
adjunct professor
columnist for Food Technology and Packaging Digest
Want to know more about how this article affects your business? Reach out to Dr. Sand on LinkedIn - https://www.linkedin.com/in/clairekoelschsand
Want to keep learning from Dr. Sand? View more of her presentations and articles at https://www.packagingtechnologyandresearch.com/insights.html
Dr. Claire Sand | Owner, Packaging Technology & Research, LLC; Adjunct Professor, CalPoly and Michigan State University; Columnist for Food Technology Magazine and Packaging Digest http://www.packagingtechnologyandresearch.com/
This document provides an overview of maximizing and extending shelf-life for food and beverage products. It discusses best before and use by dates, the steps for setting shelf-life which include establishing product parameters, checking legislation, identifying microorganisms of concern, conducting shelf-life testing, and ongoing review. Extending shelf-life can offer benefits but safety and quality must not be compromised. Considerable expertise is needed to properly set or extend shelf-life to ensure legal compliance and protection of consumers.
How to choose the right packaging for your food product?inewtrition
The food packaging you choose isn’t just about what looks good on shelf. You also have to consider functional elements like how it will work to contain and protect your product in the short and long-term, how convenient and easy-to-open it is for the consumer, and if it effectively communicates the purpose and benefits of your product.
Creating the perfect packaging for your functional food or beverage product is all about finding the balance between the technical side and the artistic side. Oftentimes, brands spend too much time on one or the other, which more often than not, leads to poor management of time and resources, and a less than ideal package that doesn’t tick all the necessary boxes that consumers require.
The goal for any brand with its food packaging should be to create a well-designed package that contributes to a positive consumer experience.
PROVE IT OR ELSE! Traceability – regulation and consumer demands on your data...CTRM Center
The commodity business has always been fraught with complexity, but under increasing scrutiny from legislators, regulators, consumers, and therefore auditors, that complexity is growing steadily and inexorably. One significant challenge in which complexity is increasing, is the need to track commodities, consumables, and fuels, from source to market. It is no longer the case that buyers can simply pick the best price in choosing a supplier as concerns over issues like food safety, as well as an increasingly savvy consumer that is concerned over abusive labor practices, workers rights, and environmental issues, for example, are increasing the traceability complexity across almost all supply chains.
The recent Trade Facilitation and Trade Enforcement Act, for example, has tightened import controls into the US allowing customs to detain and seize any product thought to have been produced with child labor. The legislation has already been used to detain a shipment entering the US. In order to release a shipment, the owner is required to prove that the custom’s suspicions are incorrect. This is a good example of how a myriad of new rules and regulations are forcing commodity firms to pay much closer attention to traceability. Increasingly, the onus is on the owner of the commodity or product to prove compliance with standards for environment, labor and sustainability etc.
Packaging design & innovation in foods and beveragesinewtrition
Do you want to choose the right packaging for your new product?
Do you want to strengthen your existing product as part of your marketing strategy and consider the alternatives to your current packaging?
Creating or selecting a food package is partly art and partly science. Both are significant and go hand in hand. Besides, designers must evaluate the technology push, market pull and socioeconomics carefully for successful packaging design.
To average consumers, food packaging is simply the enclosure of a food product in a plastic pouch, a metal can, or a glass bottle. To scientists or engineers, food packaging is a rather technical subject – it is a coordinated system designed for the efficient delivery of high quality, safe food products throughout the supply chain and the shelf-life. However, for food entrepreneurs, food packaging is all the above and more. The packaging gives you innovative ways to reach your customers. It enables you to communicate with your consumers as a marketing tool. For more information, please contact Raphaelle at info@inewtrition.com
This document discusses the importance of food packaging and labelling. It provides an overview of the key information that must be included on food labels according to regulations, such as the name of the food, ingredients, nutrition information, allergen warnings, and expiry dates. It also notes that food packaging must not be misleading and must ensure food safety. The document presents the results of analyzing food labels from various producers to check for compliance with requirements. It concludes that food labelling is important for food production and safety, and standards must be enforced.
If you have any questions or comments, please send them to connect@tracegains.com. We look forward to hearing from you.
Meeting Description:
Food packaging is an important element to the safety of food and its ingredients, as they travel through the supply chain and on to the consumer.
How can you protect yourself, your brand, your customers, and the end consumer from adverse impacts?
What are best practices you should be paying attention to in manufacturing and purchasing of packaging materials and components?
-How can you proactively monitor and manage your suppliers?
-Debra Krug-Reyes of ConAgra will discuss the need for food safety programs at packaging suppliers.
-George Gansner of IFS will then talk about the role and importance of the Global Food Safety Initiative (GFSI) and International Featured Standards.
This webinar will reveal the history of the IFS PACsecure standard, focus on the benefits of certification to the supplier and customer, as well as review the tools available in support of certification which include HACCP implementation workbooks designed specifically for the sector for which it applies (glass, metal, rigid plastic, flexible plastic, and paper – corrugated, paper board, etc.).
About the IFS PACsecure standard:
Since 2003, IFS has built its presence around the world as a leading standard in the food supply chain, and in 2013, IFS PACsecure was added to the family of GFSI benchmarked certifications. This standard for primary and secondary packaging materials was developed to provide packaging converters the opportunity to certify their systems and products with a HACCP-based approach, using risk-based methodology.
Developed jointly by the food and packaging industry in North America with the guidance of the Packaging Consortium, the IFS PACsecure standard is now globally viable and meets GFSI customer requirements.
Global packaging use is expected to increase to $820 billion by 2016, with flexible and rigid plastics and board packaging formats seeing the most growth. Key packaging trends include smart packaging that provides consumer information via technologies like QR codes, convenient packaging that offers benefits like easy opening and microwavability, and retail ready packaging that is shelf ready. Sustainable packaging focuses on areas like bioplastics and the 3Rs of reduce, reuse, and recycle. Food packaging must ensure safety by preventing chemical interactions between packaging, food, and the environment according to regulations and standards.
The Development of Business Relationship in the European Market for Fish Qualityijtsrd
This paper focused on how important for business relationship in the determination of fish quality in the foreign markets. From the data collected and the analysis made, the researcher concluded that the determinants of quality fish for export markets are performed accurately with the help of the European inspectors. There are different determinants of quality fish that are performed throughout the industry for the well being of the product. The determinants acquired through excessive interviews are organoleptic assessment, instrumental method, chemical assessment, packaging, storage, vessel and transportation. Dr. Le Nguyen Doan Khoi "The Development of Business Relationship in the European Market for Fish Quality" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-1 , December 2020, URL: https://www.ijtsrd.com/papers/ijtsrd38041.pdf Paper URL : https://www.ijtsrd.com/economics/commerce/38041/the-development-of-business-relationship-in-the-european-market-for-fish-quality/dr-le-nguyen-doan-khoi
The International Council for Harmonisation (ICH), formerly the International Conference on Harmonisation (ICH) held the inaugural Assembly meetings on 23 October 2015 establishing ICH as an international association, a legal entity under Swiss law.
This step built upon a 25-year track record of successful delivery of harmonised guidelines for global pharmaceutical development as well as their regulation, and a longer standing recognition of the need to harmonise.The guidance stated in the ICH harmonized tripartite guideline entitled “Stability Testing of New Drug Substances and Products” (issued by ICH on October 27, 1993) applies in general to biotechnological/biological products.
Studies on the Common Preservatives and Additives and their Nutritional Value...YogeshIJTSRD
The study aims at the screening of selected preservatives and additives with respect to its nutritional values. For centuries man has treated food to prolong to its shelf life, and now a days both the natural syntactic preservatives and additives are used widely to ensure the satisfactory maintenance of the quality, quantity and safety of foods. The food preservatives and additives are selected based on the food industries and purchased and measured. Nutrition values i.e., energy, carbohydrates, fats, proteins, fibre and sugar is analysed for the selective additives and preservatives. There continues to be lots of public concern about the use of food preservatives including additives leads from a perception that some of them may have undesirable effects on human body and their daily lifestyle. The absence of nutritional values in food additives and food preservatives are analysed by means of confirmatory tests. The results of these assays prove that there is no presence of nutrients in the additives and preservatives which are commonly used in south Indian food industries. Keziah Prabhu | G. Sangavi | Shaleesha A. Stanley "Studies on the Common Preservatives and Additives and their Nutritional Values used in the South Indian Food Industry" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-4 , June 2021, URL: https://www.ijtsrd.compapers/ijtsrd42328.pdf Paper URL: https://www.ijtsrd.combiological-science/biotechnology/42328/studies-on-the-common-preservatives-and-additives-and-their-nutritional-values-used-in-the-south-indian-food-industry/keziah-prabhu
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3) HGS's European strategy prioritizes using renewable and recycled materials in their packaging designs when possible. Their hierarchy of material choice and environmental criteria for packaging design are explained. Metrics for reducing weight, carbon footprint, and chemicals are part of their strategy.
The document discusses pharmaceutical packaging technology. It covers the functions of packaging which include barrier protection, biological protection, physical protection, information communication, identification, security and convenience. It also discusses the different types of pharmaceutical packaging including primary, secondary and tertiary packaging. Primary packaging materials can include glass, plastic, metal while secondary packaging uses materials like boxes, cartons and shrink wraps. The selection of packaging depends on the dosage form and its requirements to provide stability and prevent chemical reactions or degradation from light, heat and moisture. Packaging ensures safe delivery of drugs to patients and provides important labeling information.
Ten food products were surveyed to check compliance with food labeling regulations. Only three products (Yum Yum peanut butter, Heineken beer, and D'lite cooking oil), all imports, fully complied. The survey found a 30% compliance rate overall. Local companies were not wholly adhering to standards, showing loopholes in enforcement. Stricter penalties were recommended to improve compliance.
Lec 3Agencies in implementing Food Laws.pptxJoannDavid4
The roles of government, industry, and consumers in ensuring food safety are outlined. Key government agencies in the Philippines that regulate different parts of the food chain are the Department of Agriculture, Department of Health including the Food and Drug Administration, and local government units. These agencies set food safety standards and regulations. Food business operators are primarily responsible for producing safe food while consumers have responsibilities such as proper food handling and checking labels. Collaboration between these groups helps strengthen the food regulatory system and protect public health.
The document summarizes regulations for processed food in Indonesia. It describes Indonesia's food control infrastructure, including relevant laws and the National Agency for Drug and Food Control (NADFC), which functions similarly to a food and drug administration. NADFC oversees regulation of processed foods, including pre-market assessment and standards for food safety, quality, additives, labeling and advertising. The agency develops regulations and technical guidelines to implement Indonesia's food laws.
Similar to Standard for plastics for food packaging (20)
The simplified electron and muon model, Oscillating Spacetime: The Foundation...RitikBhardwaj56
Discover the Simplified Electron and Muon Model: A New Wave-Based Approach to Understanding Particles delves into a groundbreaking theory that presents electrons and muons as rotating soliton waves within oscillating spacetime. Geared towards students, researchers, and science buffs, this book breaks down complex ideas into simple explanations. It covers topics such as electron waves, temporal dynamics, and the implications of this model on particle physics. With clear illustrations and easy-to-follow explanations, readers will gain a new outlook on the universe's fundamental nature.
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Date: May 29, 2024
Tags: Information Security, ISO/IEC 27001, ISO/IEC 42001, Artificial Intelligence, GDPR
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Standard for plastics for food packaging
1. 373
PLASTICS FOR FOOD PACKAGING:
NATIONAL AND INTERNATIONAL
STANDARDS
Before proceeding to acquaint ourselves with application of standards in the field of food
packaging, it would be useful for us to recapitulate the definitions of the two words,
namely “standards” and “standardisation”.
A ‘standard’ is a result of a particular standardisation effect, approved by the recognised
authority. It may take the form of a document containing a set of conditions to be fulfilled, a
fundamental unit or physical constituent or an object for physical comparison.
Standardisation is the process of formulating and applying the rules for an orderly approach
to a specific activity - for the benefit of all - with the co-operation of all concerned and in
particular for the promotion of optimum overall economy, taking due account of functional
conditions and safety requirements. Standardisation is based on the consolidated results of
science, technology and experience. It determines not only the basis for the present but also
for future development and it should keep pace with advances.
The development of packaging, as science and technology, has witnessed a phenomenal growth
in the recent years. Traditional materials like metal, wood and jute are being replaced by light
weight plastics, fibreboard boxes and containers made of laminated and coated materials. In
order to successfully and safely market food products as well as enter the export market, the
package must conform to the prevailing specifications, trends and preferences of the target
markets.
In the context of all these factors, application of standards and standardisation for food
packaging needs, can play a vital role in putting the food packaging industry on a sound
footing for developing domestic and international markets.
There are several aspects of standards. These may include:
• Specifications of products and materials
• Codes of practices
• Standard test methods
• Standard terminologies, symbols, colour schemes, nomenclature, notations etc.
• Standard sampling procedures
• Inspection methods
• Criteria for conformity
There are different levels of standards, which may be listed as:
• An Individual Standard
• A Company Standard
2. 374
• An Association Standard
• A National Standard
• An International Standard
The level is determined by the specific interests involved in creating and using the standard in
day-to-day operations.
There are various benefits to standardisation. To mention a few briefly; the following are
listed:
• To the Producer — Rationalisation of manufacturing processes, improved control
of processes/materials, high rate of production, reduction of
inventories, ultimate increase in sales and hence profits.
• To the Consumer — Assurance of quality of food and services purchased, better value
for money spent.
• To the Trade — Minimisation of delays, workable basis for acceptance or rejection
of goods, opening of larger markets, reduction in cost of handling
transactions.
• To the Technologist — Increased knowledge of properties, possibilities of application of
materials, accepted methods of tests and procedures, guidance
for formulation of R & D programmes.
National Standards on Food Packaging
The technical committees of the Bureau of Indian Standards (BIS) formulate the National
Standards. The primary objective of this organisation is to prepare and promulgate National
Standards.
Selection and use of the right packaging material, and the role it plays in preservation and
protection of perishable and non-perishable foodstuffs has become very important in today’s
scenario. In the transportation and distribution of these products, safe handling and
economic factors also play a vital role. In order to provide safe and hygienic food product to
the consumers, handling of the raw materials and finished products and the selection and
use of a safe and clean packaging material are of utmost importance. For perishables such
as meat, fish, fruits and vegetables, which are stored and transported under refrigeration or
in frozen conditions, proper maintenance of a cool or cold chain is imperative.
The BIS has brought out an Indian Standard on Code of Practice – IS 10106 (Part 1 / sec 1):
1990, where part 1 deals with Product Packaging and section 1 with Foodstuffs and
Perishables. This code has laid down guidelines for packaging of various foodstuffs in
such a way so as to protect them from deterioration.
For returnable containers it has further explained the procedures to keep the containers
clean for re-use. Packaging of foodstuffs and perishables commonly used by the masses are
3. 375
covered, and are classified into the following categories in their decreasing order of
perishability:
• Milk and milk products
• Fruits and vegetables
• Meat, fish and poultry
• Bakery and confectionery products
• Protein rich food
• Edible starch and starch based products
• Oils and fats
• Foodgrains and food grain products
• Sugar and honey
• Stimulant food
• Alcoholic drinks and carbonated beverages
• Spices and condiments
The code has recommended various types of packaging materials for the above product groups,
which are listed in Appendix Table 1 (at the end of the article).
This standard has other parts and sections, which are also to be followed along with the part 1
and sec 1 i.e.
• IS : 10106 (Part 2, sec 6) – 1990
Packaging Code : Packaging materials : Flexible laminates, and
• IS : 10106 (Part 4, sec 3) – 1984
Packaging Code : Packages : Plastics
Plastics for Food Packaging
Use of plastics for food packaging applications is increasing both in quantum as
well as in variety. Plastics are available in various forms such as monofilms,
co-extruded films, laminates, sachets, jars, bottles, jerry cans, trays, cups and containers of
all shapes and sizes. Realising the versatility of plastic packaging which has prompted its
wide usage in food packaging in the country, it was considered expedient by the BIS to
formulate standard on this subject – IS: 10171-1982, Guide on Suitability of Plastics for Food
Packaging.
This standard is expected to provide general guidance to the food packer in selecting the specific
thermoplastic material or its combination to design an acceptable food packaging system. The
standard, however, does not provide guidance on the actual design of the food packaging
system or cover the shelf-life requirements for various food products. The standard also states
that the plastics used shall be of food grade material and should be safe for food contact and
conform to the relevant Indian Standards and used in conjunction with the following series of
standards on food contact plastics of which it forms a part.
4. 376
Indian Standards for Food Contact and Safety
IS: 9833-1981: List of pigments and colourants for use of plastics in contact with foodstuffs,
pharmaceuticals and drinking water.
IS: 9845-1998: Method of analysis for the determination of specific and/or overall migration
of constituents of plastics materials and articles intended to come into contact with food
stuffs.
IS: 10141-1982: Positive list of constituents of polyethylene for its safe use in contact with
foodstuffs, pharmaceuticals and drinking water.
IS: 10142-1982: Specification for styrene polymers for its safe use in contact with foodstuffs,
pharmaceuticals and drinking water.
IS: 10146-1982: Polyethylene for its safe use in contact with foodstuffs and drinking water.
IS: 10148-1982: Positive list of constituents of polyvinyl chloride and its copolymers for
safe contact with foodstuffs, pharmaceuticals and drinking water.
IS: 10149-1982: Positive list of constituents of styrene polymers in contact with foodstuffs,
pharmaceuticals and drinking water.
IS: 10151-1982: Poly vinyl chloride (PVC) and its co-polymers for its safe use in contact with
foodstuffs, pharmaceuticals and drinking water.
IS: 10910-1984: Positive list of constituents of Polypropylene and its copolymers for its safe
use in contact with foodstuffs, pharmaceuticals and drinking water.
IS: 11434-1985: Ionomer resins for its safe use in contact with foodstuff, pharmaceuticals
and drinking water.
IS: 11435-1985: Positive list of constituents of ionomer resins in contact with foodstuffs,
pharmaceuticals and drinking water.
IS: 11704-1986: Ethylene acrylic acid (EAA) copolymers for their safe use in contact with
foodstuffs, pharmaceuticals and drinking water.
IS: 11705-1986: Positive list of Ethylene acrylic acid (EAA) copolymers in contact with
foodstuffs, pharmaceuticals and drinking water.
IS: 12229-1987: Positive list of constituents of polyalkylene terephthalates (PET & PBT) for
their safe use in contact with foodstuffs, pharmaceuticals and drinking water.
IS: 12247-1988: Nylon-6 polymer for its safe use in contact with foodstuffs, pharmaceuticals
and drinking water.
IS: 12248-1988: Positive list of constituents of Nylon-6 polymer for its safe use in contact
with foodstuffs, pharmaceuticals and drinking water.
IS: 12252-1987: Polyalkylene terephthalates (PET & PBT) for their safe use in contact with
foodstuffs, pharmaceuticals and drinking water.
5. 377
IS: 13449-1992: Positive list of constituents of ethylene vinyl acetate (EVA) copolymers in
contact with foodstuffs, pharmaceuticals and drinking water.
IS: 13576-1992: EMA for its safe use in contact with foodstuffs, pharmaceuticals and drinking
water.
IS: 13601-1993: Ethylene vinyl acetate (EVA) co-polymers for its safe use in contact with
foodstuffs, pharmaceuticals and drinking water.
IS: 14972-2001: Positive list of constituents of polycarbonate in contact with foodstuffs,
pharmaceuticals and drinking water.
The above standards cover requirements of basic resin, additives, monomers, pigments
and colourants, overall migration and storage and control.
IS: 10171-1982 also provides a table, Appendix Table-2 at the end of the article, of
specific food products, guidance on type of thermoplastics, nature of packaging,
possible substitutes, combinations of thermoplastics and variations to provide general
guidance on the food contact thermoplastics.
Standards for Test Methods
BIS also specifies some standards for test methods of checking food containers and plastic
materials. These are listed below.
Standards for Test Methods
IS: 2798-1964: Method of tests for polyethylene containers
IS: 8543-1979 (Part 1, Sec. 2): Methods of testing plastics: characterization of polymer
structure and size : determination of density of solid plastics
IS: 8543-1977 (Part 2, Sec. 1): Methods of testing plastics: testing of materials before moulding:
determination of density of moulding
IS: 8343-1977 (Part 2, Sec. 2): Methods of testing plastics : testing of materials before moulding:
determination of apparent density of moulding materials that cannot be poured from a
funnel
IS: 8543-1977 (Part 2, Sec. 3): Methods of testing plastics: testing of materials before moulding:
determination of bulk factor of moulding materials
IS: 8543-1978 (Part 3, Sec. 1): Methods of testing plastics: preparation of test specimens:
compression moulded test specimens
IS: 8543-1978 (Part 3, Sec. 2): Methods of testing plastics: preparation of test specimens:
injection moulded test specimens
IS: 8543-1984 (Part 4, Sec. 1): Methods of testing plastics: short term mechanical properties:
determination of tensile properties
6. 378
Other BIS Standards
Other BIS standards listed below are on milk and dairy products (code of practice); edible
oils and vanaspati packaging; drinking water; feeding bottles, liquor packaging; flour
packaging; food grains and sugar packaging; glossary of terms and other miscellaneous
plastic food related subjects.
Other BIS Standards
IS: 1613-1960: Milk bottle crates
IS: 2508-1984: Low Density Polyethylene films
IS: 2828-1964: Glossary of terms used in the plastic industry
IS: 7019-1982: Glossary of terms used in plastics and flexible packaging, excluding paper
IS: 7408-1984 (Part 1): Blow moulded polyolefin containers – over 5 litres capacity
IS: 7408-1984 (Part 2): Blow moulded polyolefin containers – over 5 up to 30 litres capacity
IS : 7408-1988 (Part 3): Blow moulded polyolefin containers – closed head containers over
30 litres, up to and including 200 litres capacity
IS: 7688-1976 (Part 3): Code of practice for labeling of pre-packed foods: nutritional
labeling
IS: 8356-1993: Titanium dioxide for food grade
IS: 9907-1981: HDPE crates for milk bottles
IS: 10177-1982: Ice cream cups and lids
IS: 10840-1986: Blow moulded HDPE containers for vanaspati
IS: 10974-1984 (Part 1): Code for hygienic conditions for production, transport, storage, and
distribution of indigenous milk products – khoa and khoa based sweets
IS: 10974-1984 (Part 2): Code for hygienic conditions for production, transport, storage, and
distribution of indigenous milk products – dahi
IS: 10974-1984 (Part 3): Code for hygienic conditions for production, transport, storage, and
distribution of indigenous milk products – chhana and chhana based sweets
IS: 10974-1984 (Part 4): Code for hygienic conditions for production, transport, storage, and
distribution of indigenous milk products – kulfi
IS: 10974-1984 (Part 5): Code for hygienic conditions for production, transport, storage, and
distribution of indigenous milk products – fermented products – shrikhand
IS: 11352-1994: Flexible pack for packing of vanspati in 100g, 200g, 500g, 1kg and 5 kg
packs
7. 379
IS: 11584-1986: High density polyethylene (HDPE) crates for milk sachets
IS: 11805-1989: Polyethylene (PE) pouches for packaging liquid milk
IS: 11824-1986: Packaging – paper coated woven sacks for packaging skimmed milk
powder
IS: 12100-1987: HDPE woven sacks for packing flour
IS: 12265-1987: Flexible packs for packing edible oils
IS: 12626-1989: Laminated jute bags for packing milk powder
IS: 12724-1989: Flexible packaging materials for packaging of refined edible oils
IS: 1283-1989: Poly vinyl chloride (PVC) bottles for edible oils
IS: 12887-1989: Polyethylene terephthalate (PET) bottle for edible oils
IS: 14129-1994: Flexible packaging materials for the packing of vanaspati in 10 kg and 15 kg
packs
IS: 14537-1998: PET bottles for packaging of alcoholic liquors
IS: 14543-1998: Packaged drinking water (other than natural mineral water)
IS: 14625-1999: Plastic Feeding bottle
IS: 14887-2001: Textile-HDPE/PP woven sacks for packing 50/25 kg food grains
IS: 14968-2001: Textile-HDPE/PP woven sacks for packing 50/25 kg sugar
Standards and Specifications of Plastic Recycling
The Indian plastic industry has helped formulate standards and specifications for plastics
recycling in the country. There are two BIS standards introducing the coding system
recycling practices and standards for the manufacture & usage of recycled plastics.
(Figure 1)
• Recycled Plastics for Manufacturing of Products Designation IS: 14535
Scope:
1. This standard is intended to be used for the identification of the recycled plastic material
on the basis of its basic properties and applications.
2. This standard applies to recycled plastics material ready for normal use without any
further modifications.
3. Though some modification and test methods have been provided in the standard,
any specific modification and the relevant test method, which may be necessary in
some specific applications, shall have to be agreed between the purchaser and the
supplier.
8. 380
4. Though this designation system is only indicative of a broad classification of the
recycled material, the absolute value of the low results may be provided which shall be
agreed to, between the purchaser and the supplier.
• Guidelines for Recycling of Plastics
This standard prescribes guidelines to the manufacturers of plastic products with regard to
the marking to be used on the finished product in order to facilitate identification of the
basic raw material. It will also help in identifying whether the material used on the end
product is recyclate or a blend of virgin and recyclate.
Terminology:
1. End Products: Products made out of virgin, recycled/reprocessed plastics. Typical
suggested end products along with use of appropriate types of plastic waste / scrap
are given. A process by which plastic waste is collected, segregated, processed and
returned for use.
2. Classification of Recycling: Plastics recycling technologies have been historically divided
into four general types – primary, secondary, tertiary and quaternary. (Figure 1)
IS: 14534/14535-1998 Introducing Coding System / recycling practices Packaging
guidelines of MOEF
MOEF notification “Recycled Plastic Manufacturers & Usage rule 1999”
Figure 1: Regulatory and Statutory Norms
International Standards
The International Organisation for Standardisation (ISO) is a worldwide federation of
national standards bodies from 140 countries, working in partnership with international
organisations, governments, industry, business and consumer representatives. The mission
of ISO is to promote the development of standardisation and related activities in the world
with a view to facilitate the international exchange of goods and services, and to develop
co-operation in the spheres of intellectual, scientific, technological and economic activity.
ISO’s work results in international agreements, which are published as International
Standards.
9. 381
The various packaging and related aspects where standards at international level have been
covered by ISO are:
• Standards for Packaging
• Pallet Size Standards
• Standardisation of ISO Freight Containers
• Standardisation of Air Mode Containers, Pallets and Nets.
Standards for Packaging
Guide 41 – 1984 Standards for Packaging
Consumer requirements published by the ISO / TC 122 Packaging Committee, lays down the
requirements in order of priority which should be taken into consideration when drafting a
standard relating to packaging.
ISO Guide 41 – 1984 (E) Standards for Packaging – Consumer Requirements is reproduced below.
Introduction
Packaging is a product of consumer interest, the cost of which is borne indirectly by the consumer.
Standardisation of packaging should therefore address itself to such factors as safety, health,
fitness for purpose, comfort and reliability, as well as such general needs as protection of the
environment and energy conservation.
When drafting a standard relating to packaging, the requirements set out below in order of
priority should be taken into consideration.
1. Human and Environmental Safety
1.1 In storage
1.1.1 The packaging material should not be potentially harmful due to:
a) emission of substances which may endanger human or other forms of life;
b) contamination of the contents by the packaging, including those specific
cases where the combination of packaging material and contents may cause
problems.
1.1.2 The contents, where potentially harmful, should not leak through the packaging due
to:
a) lack of a seal
b) deterioration of the packaging caused by the outside influences, such as light or
foreseeable mechanical forces
c) deterioration of the packaging caused by the contents
1.1.3 Where the contents are potentially harmful, the packaging should be clearly labeled
with relevant warnings and instructions for storage and disposal.
10. 382
1.1.4 Where time affects the safety of the product, the packaging should be clearly
labeled to that effect, for instance, by way of a phrase such as “Do not use after
(date).”
1.2 In Use
1.2.1 Where contents are potentially harmful:
a) the packaging should not be misleading and should be clearly distinguishable,
in colour and shape or by any other means, if necessary, from food or beverage
packaging;
b) the packaging should be clearly labeled with relevant warnings and instructions
for use
c) relevant warnings and instructions for use, such as “Keep out of Children’s
reach” should be repeated on any inner packaging.
1.2.2 Where contents or packaging are potentially harmful on opening, or on removal of
contents:
a) opening instructions should be given clearly and at the appropriate place
b) opening means should be suited to the contents, packaging and potential
users. In some cases, two or more groups of users may have different,
possibly conflicting, requirements with respect to opening means. For
example, packaging of pharmaceuticals which may come within reach of
children should have child resistant closures, while the same closure should
be easy for a handicapped person to open (possibly with the help of an
auxiliary device)
c) closing devices should be designed in such a way that they cannot fall inside
the container
d) the packaging should facilitate the safe removal of the contents
1.2.3 Where contents may become harmful if the packaging is left open;
a) clear closing instructions should be given, for example “Materials with noxious
fumes”.
b) closing devices should be suited to the contents, packaging and potential users.
1.3 In Disposal
1.3.1 Wherever possible, the packaging and remainder of the contents
should be capable of safe disposal by normal means, with no short or long term
danger to human beings or the environment. Biodegradable materials are
preferred.
1.3.2 Clear instructions on disposal of packaging and/or contents should be given
whenever normal means of disposal are inappropriate.
1.3.3 Recycling processes, if any, should not cause harm in the short or long term to human
beings or the environment.
11. 383
2. Fitness for Purpose
2.1 Protection
The packaging should protect the contents in such a way that neither their
performance nor their reliability is affected by:
a) outside mechanical forces such as impact or vibration;
b) contamination by undesirable substances, for example water or air;
c) climatic conditions, for example heat or cold.
2.2 Handling
The packaging design should facilitate:
a) transportation and storage of the product both at the distribution level and at
home
b) opening and remaining opened of the packaging when needed
c) closing and remaining closed of the packaging when needed
d) removal of the contents from the packaging
e) complete emptying of the packaging
2.3 Physical Dimensions
2.3.1 Neither the size nor the shape of the packaging should mislead the consumer as to
the amount of its contents. Where settling may occur, this information should be
clearly stated on the outside of the packaging.
2.3.2 The number of packaging sizes should be kept to a minimum for each line of product.
Each size should be a simple multiple of the previous size (e.g. 25g, 50g, 100g,
200g)
2.3.3 The packaging sizes should be suited to the end-use and to the average rate of
consumption of the product.
3. Conservation of Resources and Economy
3.1 Conservation of Resources
The packaging should, as far as possible, be designed with a view to conserve
resources. In particular:
a) the material should be in common supply
b) the manufacturing method should be low in energy consumption
c) the packaging should be reusable, which implies that it should be easy to
clean
d) the packaging material used should be reclaimable
12. 384
3.2 Economy
3.2.1 Direct cost to the consumer
The cost of packaging should add as little as possible to the price of the product.
Care should be taken in the design of the packaging to minimise shipping and
storage costs. Excessive packaging should be avoided and where not in conflict
with other requirements, the least expensive materials should be chosen for
packaging.
3.2.2 Cost to the Community
When determining costs, those relating to the disposal of the packaging should also
be taken into consideration.
ISO/IC 122 – Packaging Committee has also laid down standards on the transport
packages covering their dimensions for unitisation as palletised load, which can fit
into freight containers. The module of unit load sizes – covered in:
• ISO 3676 – 1983 Packaging – Unit Load Sizes - Dimensions
• ISO 3394 – 1984 Dimensions of Rigid Rectangular Packages
• ISO 6780 – 1988 General purpose Flat Pallets for through transit of goods –
Principal dimensions.
For assessment of the transport package to withstand transport hazards by road,
rail, sea and air a series of testing standards for transport packages have been
developed by this committee.
The Quality Standard ISO 9000:2000
One of the most far reaching developments in the quality arena affecting world trade has
been the evolution of ISO 9000 series of standards on quality management systems. It has
brought in a new era of the concept of quality at the global level. ISO 9000 provides an
overall improved competitiveness as it ensures control, consistency, assurance of high
standards and most importantly improved quality. ISO 9000 is an internationally
recognised bench mark for measuring quality in the context of trade. The worldwide
growth of Quality Management System (QMS) has been phenomenal, and in a short span of
time, the ISO 9000 series of standards are being applied increasingly by majority of
nations.
Based on the experiences gained worldwide - over 12 years or so, the ISO committee of
Quality Management Systems decided to launch the ISO 9000 : 2000 series of standards.
The ISO 9000 standards serve as a basis for ensuring consistent quality of goods and
services.
These standards have necessitated organisations to reorient, to address process centred
approach to meet customer requirements, gauge their satisfaction and place the system on a
continual improvement mode.
13. 385
The ISO 9000 Standards have four basic modules (Figure 2), one core module ISO 9001 and three
supporting modules ISO 9000, ISO 9004 and ISO 19011.
Figure 2: ISO 9000 : 2000 Module
ISO 9000
QMS Fundamentals
and Vocabulary
ISO 9004
QMS Guidelines for
Performance
Improvement
ISO 19011
Quality &
Environmental
Auditing
ISO 9001
QMS
Requirements
ISO 9000 : 2000: Quality Management System – Fundamentals and
Vocabulary
This standard has two parts:
• Part A: Fundamentals for Quality Management Systems encompassing the following :
• Quality Management System Approach
• Process Approach
• Distinguishing features of System and Product Requirements
• Value of Documentation
• Evaluation of QMS
• Instituting Continual Improvement.
• Part B: Concepts, Terms and Definition.
This part has included a new approach to quality and system related definitions making it
friendly in use under different linguistic conditions.
14. 386
ISO 9001 : 2000: Quality Management System Requirements
IS 9001:2000, is the certification model for use by all types and sizes of organisations both in
industrial and service sectors. It is built of four pillars of Quality Management System
(Figure 3):
• Management Responsibility
• Resource Management
• Product and Service Realisation
• Measurement, Analysis and Improvement
Quality Management System
Management Responsibility
Product & Service Realisation
Resource Management
Figure 3: Four Pillars of Quality Management Systems ISO 9001 : 2000
Measurement, Analysis & Improvement
ISO 9004 : 2000: Quality Management System – Guidelines for Performance
Improvement
This standard includes:
• Principles of Quality Management Systems which encompasses eight principles to facilitate
achievement of quality objectives. The eight principles are – customer focused
organisations, leadership, involvement of people, process approach, systems approach to
management, continual improvement, factual approach to decision making and mutually
beneficial supplier relationships.
15. 387
• Managing Systems and Processes
The process model reflects integration of management responsibility, resource
management, product and / or service realisation, measurement analysis and
improvement.
• Evaluation of the Organisation’s Progression in Performance Improvement.
The standard has included a self-assessment model to provide fact based guidance to
organisations regarding where resources can best be utilised. This helps in identifying priorities
and action plans for improvements.
ISO 19011 : 2000: Guidelines on Quality and Environmental Auditing
The ISO 9000 and ISO 14000 series of international standards include mandatory
requirement for audit as a key management tool for achieving the objective set by the
organisation. There is a harmonisation effort at the international level to bring the present
quality system auditing standards into one international standard ISO: 19011:2000. This
standard clarifies audit terms and provides procedures for the conduct of quality and
environmental system audits and managing audit programmes. This also provides
guidelines on qualification criteria and competence of auditors to ensure that audits are
carried out effectively and consistently.
WTO and the Food Sector
It is now widely accepted that the international norms for all aspects of food production and
marketing would be governed by the WTO Regulations. The Indian food companies therefore
have to gear up to meet the challenges lying ahead.
The World Trade Organisation (WTO) came into existence from 1st
January 1995. The WTO
agreement on Agriculture (AOA) stresses on the liberalisation of trade so as to have distortion
free markets.
Under the WTO regime, the two agreements that enable the enforcement of quality and safety
are:
• Agreement on Sanitary and Phytosanitary Measures (SPS)
• Agreement on Technical Barrier to Trade (TBT)
The Sanitary and Phytosanitary Agreement (SPS)
The SPS agreement fundamentally affirms that importing countries can impose measures
necessary to protect the life and death of their animals and plants, on the basis of sound and
scientific evidence and judgement, using appropriate risk analysis methods. The SPS
agreement:
• Places a heavy emphasis on “transparency” in the development and application of sanitary
and phytosanitary trade measures
• Requires these measures to be applied in a non-discriminatory manner
• Places emphasis on equivalence
16. 388
• Emphasises the use of risk analysis to determine measures to provide the appropriate level
of protection in the least restrictive manner to international trade
• Strongly encourages “harmonisation” between countries based on adoption of standards
developed by bodies setting international standards
• Requires countries to participate in the work of organisations setting international
standards
• Emphasises the need for assistance to developed and less developed countries, and
• Provides for dispute settlement procedures
The SPS agreement requires that, with regard to food safety measures, WTO members base
their national measures on sound scientific evidence and judgement, taking into account
international standards, guidelines and other recommendations adopted by the Codex
Alimentarius Commission, where they exist. The SPS Agreement establishes a WTO
Committee on SPS measures to provide a regular forum for Consultations and to monitor the
process of international harmonization and the use of international standards, guidelines and
recommendations.
Technical Barriers to Trade (TBT)
The agreement on Technical Barriers to Trade (TBT) had been in existence as plurilateral
agreement since the Tokyo Round. It was revised and converted into a multilateral agreement
through the Uruguay Round. It covers all technical requirements and standards (applied to all
commodities) such as labeling, that are not covered by the SPS Agreement. The SPS agreement
covers those aspects related to health i.e. food additives, pesticide residues, residues of
veterinary drugs, codes and guidelines of hygienic practices etc. Aspects such as labeling are
covered by the TBT Agreement. For example, in the case of a carbonated beverage sold in a
plastic bottle, the bottling method, contaminants, packaging material coming in contact with
the drink, and additives are covered by SPS, while product description, labeling and package
specifications are covered by the TBT agreement.
The Codex Alimentarius
A worldwide recognition of the importance of international trade, the need for facilitation of
such trade while at the same time ensuring the quality and safety of food for the world
consumer, led in 1962 to the establishment of the joint FAO/WHO Food Standards Programme
and of the Codex Alimentarius Commission (CAC).
The Food and Agriculture Organisation (FAO) and the World Health Organisation (WHO)
support the Codex Alimentarius Commission.
Its work is serviced by a Secretariat located in FAO Headquarters in Rome, the joint FAO/
WHO Food Standards Programme, Membership of the Commission is open to member
governments or Associate Members of FAO and/or WHO.
The CAC is responsible for the development of the Codex Alimentarius, which is Latin for
“food code.” The Codex Alimentarius is a collection of internationally adopted food standards,
maximum residue limits for pesticides, residues of veterinary drugs, and codes of practice.
17. 389
The codex aims at global protection of consumer’s health and economic interests, and
ensuring of fair practices in the trade in food. The Codex Alimentarius includes provisions
related to the basic composition, hygiene and nutritional quality of raw, semi-processed
and packaged foods, provisions for food additives, residues of pesticides and veterinary
drugs, industrial chemicals or naturally occurring contaminants, labeling and presentation
and methods of analysis and sampling. The principal role of CAC is to develop harmonised
international food standards by the WTO as the bench mark for international trade in
food.
Hazard Analysis Critical Control Points (HACCP)
In 1993, CAC recommended the commercial application of HACCP in food processing
plants. Moreover, the SPS measures under the auspices of WTO endorsed the
recommendation of CAC. In the post-WTO regime, there were instances where foreign
buyers refused to accept Indian processed food products, for Indian firms had not adopted
the HACCP system. However, since then, the implementation of HACCP in Indian firms
has been on the rise. The Central Government has also announced a subsidy scheme for
HACCP implementation.
HACCP is a food safety management system based on logical, scientific approach to control
safety problems in food processing in a timely manner. By using HACCP, control is transferred
from end product testing (i.e. testing for failure) to the design and manufacturing of food (i.e.
preventing failures). HACCP is product specific and plant specific, and therefore, a unique
plan has to be chalked out for each product and/or process. In principle, HACCP can be
applied throughout the food chain, starting from the primary producer to final consumer.
HACCP comprises of three aspects:
• Good Manufacturing Practices (GMP)
• Preliminary Steps, and
• The Seven Principles
The first is a pre-requisite for implementation of HACCP. Before HACCP is implemented, it is
a pre-requisite that the food manufacturing plant follows GMPs. For example, hygienically
clean shop floors and premises are extremely essential for food production.
The preliminary steps involve forming a HACCP team, which would include representatives
right from the top management to the shop floor worker, chalking out flow chart of production
process and related activities.
The seven principles of HACCP are as follows:
• Conduct hazard analysis
• Identify critical control points (CCP)
• Set critical limits for each CCP
• Establish corrective action
• Establish record keeping procedure
• Verification and validation of the system
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Codex and Food Packaging
Food packaging has not received much attention with the CAC. Its most prominent coverage is
in relation to labeling, the Codex General Standard for the Labeling of Prepackaged Food (Codex
Alimenterius Section 4 of Volume 1 A). This general standard has its guiding principle that,
prepackaged food should not be described or presented on any label in a manner that is false,
misleading or deceptive or is likely to create an erroneous impression regarding its character in
any respect. A further guiding principle that prepackaged food should not be described or
presented on any label by words, pictorial or other devices, which refer to or are suggestive of
any other product with which the food might be confused, or in such a manner as to lead the
purchaser or consumer to suppose that the food is connected with such other product.
This general standard covers mandatory labeling requirements such as naming of food, listing
of ingredients, the format of net contents and drained weights, identification of manufacturer,
packer, distributor, importer, exporter or vendor, inclusion of country of origin and the special
identification of food that has been irradiated.
At its session in 1995, the CAC adopted a Code of Practice for the Packaging and Transport of
Fresh Fruits and Vegetables. The provisions in this Code, consistent with the approach of the
Uruguay Round Agreement and principles of equivalence, set out standards to be achieved
rather than prescribing detailed requirements. As an example, it requires that packaging must
withstand rough handling during loading and unloading, compression from the overhead
weight of other containers, impact and vibration during transportation, and high humidity
during pre-cooling, transport and storage.
The issue of packaging is also covered in the Codex Alimentarius’ Recommended
International Code of Practice – General Principles of Food Hygiene (Codex Alimenterius
Section 1 of Volume 1B). In this also, the treatment of the subject is general, requiring that all
food packaging material be appropriate for the product to be packed and for the expected
conditions of storage. It further specifies that packaging should not transmit to the
food product substances beyond the limits acceptable to the official agency having
jurisdiction.
Finally, the Codex Alimentarius also contains guideline levels for vinyl chloride monomer (0.01
mg/kg) and acrylonitrile ( 0.02 mg/kg) in food, with slightly higher levels permitted in packaging
material (Codex Alimenterius Section 6,4 of Volume 1 A).
Conclusion
Food safety is a growing concern among consumers. Standards and specifications for food
packaging have played a vital role in putting the food packaging industry on a sound
footing in globalised markets.
Plastics have been the ideal material for food packaging. As the technologies have grown,
plastics have readily outperformed the traditional materials in food packaging in all aspects
meeting stringent requirements. They have always kept pace with the growing customer
needs and meet International standards and specifications.
19. 391
APPENDIX TABLE 1
Packaging Materials For Food Products
Sr. Food Product Packaging Materials
No.
I PACKAGING OF MILK PRODUCTS
1 Flavoured milk
a) Pasteurized flavoured milk • Glass bottles
• LDPE lined cartons
• Aseptic cartons
b) Sterilized flavoured milk • Glass bottles
• Sanitary cans
• Poly-paper or Poly-laminated
paper packs in tetrahedron,
pyramid or other forms
2 Sterilized milk • Glass bottles
• Sanitary cans
• Poly-paper or poly-laminated paper
packs in tetrahedron, pyramid or
other forms
3 Condensed milk sterilized cream • Hermetically sealed containers
• LDPE lined cartons
• Aseptic cartons
4 Fermented milk products and • Glass bottles or any other
dahi suitable containers and capped.
5 Channa, khoa, cheese, chakka • Bi-axially oriented nylon film
and shrikhand (BONF) /EVA
BONF / IONOMER
BOPP / EVA
• Metal cans coated with a suitable
lacquer.
6 Partly skimmed sour milk powder, • Kraft paper
sweet-cream, buttermilk powder • Gunny bags with plastic liners
and casein
20. 392
Sr. Food Product Packaging Materials
No.
7 Burfi • Paper-board container
• Barrier laminates like BOPP/LDPE
• Tinplate containers having inner
lining of parchment paper
• Board carton lined on the inside
with fat and moisture proof
parchment paper
8 Ice – cream Returnable containers (not for retail
sale)
• Mild steel tinned
• Aluminium or stainless steel
Non-returnable Containers
• Paper-board
• Metallic foil
• Paper board containers shall be
made water-resistant by coating
or impregnation with wax or
resin.
• Sterilized and wrapped spoons
shall be supplied with small
non-returnable containers.
a) Dried Ice – Cream Mix • Hermetically sealed and clean
tinplate containers
9 Canned rasgulla • Open top sterilized sanitary cans
• Polystyrene tubs
10 Milk powder, malted milk and • Hermetically sealed and clean
skim milk foods, vegetable tinplate containers
protein infant food with milk, • Bag in box having inner layers made
infant milk foods and processed of PET / LDPE, BONEF/ LDPE
cereal weaning foods
21. 393
Sr. Food Product Packaging Materials
No.
II PACKAGING OF SUGAR AND HONEY
1 Sugar
a) Vaccum Pan Sugar, Refined • Polyethylene coated hessian hags
Sugar, Raw Sugar, white sugar • Polyethylene coated raffia bags
and Sugar Used in food • A-twill jute bags
Preservation Industry
b) Cube Sugar • Wrapped together in butter paper or
kraft paper and packed in cartons.
• LDPE coated poster paper.
c) Icing Sugar • Hermetically sealed tin containers
• Polyethylene bags packed in cartons
• LDPE coated poster pouches.
2 Honey • Wide mouth glass containers
• Acid-resistant lacquered tin containers
III PACKAGING OF EDIBLE STARCHES AND STARCH PRODUCTS
1 Flours and Starches • LDPE coated jute bags
(Maize, Tapioca Arrowroot) • LDPE coated raffia bags
• A-twill jute bags
2 Makhana Products • Suitable moisture proof containers
3 Tapioca Chips and Sago • A-twill jute bags or LDPE coated
jute bags
• LDPE coated raffia bags
4 Custard Powder • Flexible pouches made from
PET/LDPE, poster paper/LDPE,
glassine etc.
5 Liquid Glucose • Drums, lined with PET/LDPE bags
or lacquered
• Lined steel drums or those made
of tin-plate
22. 394
Sr. Food Product Packaging Materials
No.
6 Dextrose Monohydrate • High density polyethylene(HDPE) bags
• Hessian or textile bags - paper,
polyethylene or cotton lined
• Multi-walled paper bags
• Lined corrugated fibre-board
containers
• Solid fibre-board containers
• Lever lid tinplate containers
7 Edible Spray Dried Potato Flour • Tin containers
• HDPE or metallised polyester
containers or bags
• Pouches made from flexible
laminates, such as, BOPP/LDPE
IV PACKAGING OF FOODGRAINS AND FOODGRAIN PRODUCTS
1 Cereal Grains • LDPE coated jute bags
• Raffia bags
a) Pearl Barley • Double jute bags
Inner one of which shall be new A-twill
• Air-tight containers made of tinplate
• LDPE coated jute bags and raffia bags
2 Cereal Flours • LDPE coated jute bags/LDPE
coated raffia bags
• B-twill jute bags
• DW-flour bags
• Polyethylene lined jute bags
a) Barley Powder • Air-tight tinplate containers or any
other suitable air-tight containers
• LDPE coated paper bags and pouches
3 Besan • Paper
• Cloth
• Polyethylene or polyethylene laminated
jute bags
23. 395
Sr. Food Product Packaging Materials
No.
4 Miscellaneous
a) Malt Extract • Air-tight containers made of
galvanized iron
• Glass or any other suitable material
• Bag-in-box system
b) Barley Malt • Polyethylene lined gunny bags
• Bag-in-box system
c) Corn Flakes • HDPE bags made of 300 gauge HDPE
and properly sealed
• LDPE lined cartons
d) Rolled Oats • Air-tight containers made of tinplate
• LDPE lined cartons
e) Macaroni, Spaghetti and • Card board cartons with a lining
Vermicelli of moisture-proof material or plastic
film
• Moisture-proof paper bags
• Pouches made from PET/LDPE,
BOPP/LDPE
5 Papad • Pouches made from PET/LDPE
and BOPP/LDPE
V PACKAGING OF BAKERY AND CONFECTIONERY PRODUCTS
1 Bread • In sliced form in LDPE coated
poster paper or clean waxed paper
• Grease-proof paper
2 Biscuits • Containers made of tinplate
• PCRC sheets
• Card board paper
• Cello / LDPE
• BOPP / LDPE
• PET / LDPE
• Paper / LDPE
• Foil / LDPE
24. 396
Sr. Food Product Packaging Materials
No.
3 Confectionery • Cellulose film waxed paper or foil
• Polyethylene
• Cello / LDPE
• BOPP / LDPE
• PET / LDPE
• Paper / LDPE
• Foil / LDPE
4 Ice – cream Cones • Containers made of card board paper
or any other suitable material
5 Bread Rusks Containers made of :
• Tinplate
• Cardboard
• Paper
6 Buns • Suitable non-toxic wrapper
7 Bombay Halwa • Hermetically sealed tinplate
containers suitably lacquered
• Glassine / LDPE
8 Peanut Candy • Cellulose film
• Aluminium foil
• Wax paper
• Polyethylene or other flexible
packaging materials
9 Desiccated Coconut • LDPE bags of about 50µ
thickness
• Pouches made from PET/LDPE or
BONF/LDPE
10 Baking Powder • Air-tight containers
• Flexible packaging materials,
such as, PET/LDPE and BONF/LDPE
11 Cakes • Waxed paper
• Grease-proof polyethylene
• Glassine/LDPE
• Tins
25. 397
Sr. Food Product Packaging Materials
No.
12 Self-Raising Flour • Jute bags
• Paper bags with polyethylene lining
• Polyethylene bags
VI PACKAGING OF PROTEIN-RICH FOODS
1 Protein Rich Flours and • Polyethylene lined jute bags or paper
Concentrates bags
• Clean tinplate containers
• Sealed metal containers
a) Edible Leaf Protein concentrates • Double polyethylene lined paper bags
• Multi-walled bags
2 Fish Protein Concentrates • Grease-proof or sulphate paper
• Cellulose paper or any other
non-toxic packing materials which may
be covered with moisture-proof
laminate or coated paper
• Air-tight Metallic containers
3 Roasted Groundnut (Peanut) • Flexible food grade pouches
Kernels • Sealed containers
4 Ready-to-Eat, Protein-Rich • Moisture-proof paper bags (multi
Extruded Foods layered, polyethylene lined)
• Pouches made from BOPP/
LDPE, Glassine/LDPE
• High density polyethylene woven
bags having 300gauge LDPE liner for
bulk
• 250 gauge high density polyethylene
bags
26. 398
Sr. Food Product Packaging Materials
No.
5 Protein Chewy Candy • Cellulose film
• Waxed paper
• Foil
• Polyethylene or other flexible
packaging pouches
• BOPP/LDPE
• Glassine/LDPE
6 Sunflower Seed Grits • Bag-in-box system
7 Re-constitutable Protein • Tin-plate containers
Beverage Food • Glass-bottles hermetically sealed
• Bag-in-box system
8 Peanut Butter • Wide-mouth glass jars
• Polystyrene tubs
9 Vegetable Protein Based Yogurt • Wide-mouth glass jars
(Vegetable Curds) • Polystyrene tubs
• Plastic or paper containers
10 Protein Fortified Bread • LDPE coated poster paper
• Waxed paper
• Grease-proof paper
11 Protein-Rich Concentrated Nutrient • Moisture-proof, clean, dry and
Supplementary Foods and Food sound containers
Supplements for Infants • Pouches made from sterilizable
flexible laminates
12 High Protein Mixes for Use as • Tinplate containers or cardboard
Food Supplements paper containers
• Pouches made from sterilizable
flexible laminates
13 Protein Based Beverages • Glass bottles
• Lined cartons
• Glass bottles or sanitary cans
27. 399
Sr. Food Product Packaging Materials
No.
14 Protein-rich Biscuits • Tinplate containers made of PCRC
sheets or cardboard paper containers
• Grease-proof sulphite paper,
cellulose film
• Cello/LDPE
• PET/LDPE
• BOPP/LDPE
VII PACKAGING OF SPICES AND CONDIMENTS
1 Whole Spices • Jute, cloth, paper or polyethylene bags
• LDPE coated jute bags
• LDPE coated raffia bags
• Double gunny bags
a) Black Pepper, Whole • Jute bags with or without
moisture-proof lining
• LDPE coated raffia bags
b) Cardamoms • Tinplate or wooden cases, lined
with polyethylene or water–proof or
kraft paper
• Jute bags lined with polyethylene
• LDPE coated raffia bags
2 Ground Spices • Paper bags
• Bags made of suitable barrier films /
laminates, such as PET/LDPE, PET /
EVA, BOPP/EVA
3 Miscellaneous
a) Ginger, Whole • Double or single jute bags with
water-proof lining
• LDPE coated raffia bags
b) Ginger, Ground • Tin-plate or glass containers
• Paper cartons properly lined with
water-proof paper
• Bags or pouches made from PET/EVA
or BOPP/EVA
28. 400
Sr. Food Product Packaging Materials
No.
c) Curry Powder • Tin-plate or glass containers, paper
cartons properly lined with
water-proof paper
• Bags or pouches made from PET/EVA
or BOPP/EVA
d) Chillies • Jute bags
• Pouches made from PET / EVA or
BOPP / EVA
• LDPE coated raffia bags
e) Dehydrated Onion and Garlic • Large bags made from PET/LDPE
• BOPP/LDPE or in HDPE woven bags
f) Saffron • PET / LDPE or BOPP/LDPE
g) Black Pepper and Ginger Oleoresin • Glass containers
and Oleoresin Chillies • Pure aluminium containers
• Tin containers or containers of
high density polyethylene (food grade)
• Bag-in-box system
h) Tamarind Concentrate and • Tin or glass containers
Tamarind Pulp • Pouches made from metallised
polyester or laminate of
metallized BOPP/ionomer
• Metallized PET bags or BOPP
ionomer bags
• Closely woven bamboo baskets,
lined with polyethylene or palmyra mat
• Jute bags, lined with polyethylene
• LDPE coated raffia bags
• Wooden boxes lined with palmyra mats
i) Dehydrated Green Pepper • Tin or glass containers
• Paper cartons lined with
water-proof paper
• Jute bags with or without
moisture-proof lining
• PET/LDPE bags
29. 401
Sr. Food Product Packaging Materials
No.
j) Cloves • Air-tight containers
• PET/LDPE bags
VIII PACKAGING OF FRUITS AND VEGETABLES
1 Raw Vegetables and Fruits • Loosely woven gunny bags
• Wooden / plastic crates
• Lined or unlined corrugated boxes
a) Onion and Garlic • Loosely woven gunny bags
• Net bags, bamboo baskets or palm
leaf baskets
• Wooden crates, lined or
unlined corrugates boxes
b) Tomatoes • Baskets or wooden boxes
• Lined or unlined corrugated boxes
c) Peas-in-Pods • Loosely woven gunny bags
• Baskets or corrugated boxes, lined
or unlined
d) Chillies • Gunny bags
• Bamboo baskets
• Corrugated boxes, lined or unlined
e) Guavas, Limes and Mandarines • Wooden boxes, lined or
unlined corrugated boxes
• Individually wrapped either in
tissue paper or any other suitable
material
2 Canned Vegetables and Fruits • Open top sanitary cans-Lacquered
internally and hermetically sealed
3 Dehydrated Vegetables • Containers made of tinplate
• Laminated foil bags
• Metallised BOPP/LDPE bags
4 Juices, Jams, Jellies and • Glass bottles or open top cans
Marmalades
30. 402
Sr. Food Product Packaging Materials
No.
5 Miscellaneous
a) Synthetics and Fruit Squashes • Glass containers
• Containers made from suitable
plastic materials, such as, PET
b) Tomato Ketchup • Glass containers, jars
• Plastic containers made of PET
c) Pickles • Glass container
• Wooden barrels
• Metal containers
• Large pouches made from PET-PET/
ionomer
• Suitable flexible packaging material
as PET and food grade PVC
d) Mango Chutney • Wooden barrels
• Glass containers
• Pouches made from metallized
PET/ionomer
e) Papain • Polyethylene bags
• Metallized polyester/ionomer pouches
f) Walnuts • B-twill jute bags
• LDPE coated jute raffia bags
g) Cashew Kernels • Leak-proof containers
• LDPE coated jute raffia bags
IX PACKAGING OF STIMULANT FOODS
1 Tea • Flexible packaging materials
• Laminates, such as, LDPE, paper
coated LDPE
• PET / LDPE
• BOPP / LDPE
31. 403
Sr. Food Product Packaging Materials
No.
2 Roasted and Ground Coffee • Tin-plate
• Glass
• Plastic films or foil
• Laminated pouches of paper/LDPE
• PET/LDPE
• BOPP/LDPE
3 Soluble Coffee Chicory and • Tin-plate or glass container
Soluble Coffee Powder • Flexible laminated pouches of
paper/LDPE
• PET/LDPE
• BOPP/LDPE
4 Cocoa, Roasted chicory, Roasted • Suitably lined containers
Coffee Chicory Powder, Drinking • Flexible laminated pouches of paper/
Chocolate LDPE, Foil/LDPE, PET/LDPE
5 Chocolates • Tinplate
• Plastic, grease-proof paper
• Aluminium foil
• Laminates made of paper/LDPE,
BOPP / LDPE
6 Cocoa Butter • Well closed containers
• Polystyrene tubs
7 Cocoa Beans • LDPE coated jute raffia bags
X PACKAGING OF ALCOHOLIC DRINKS AND CARBONATED BEVERAGES
1 Carbonated Beverages • Glass containers
• Cans, plastic containers and
dispensing units
2 Vodka, Gin, Country Spirit • Glass liquor bottle
(Distilled), Table Wines, Brandies, • Glass bottles of any suitable
Whiskies and Rums capacity
• PET bottle
3 Beer • Glass bottles
• PET bottles
4 Toddy • PET and PVC bottles
32. 404
Sr. Food Product Packaging Materials
No.
XI PACKAGING OF MEAT, FISH AND POULTRY
1 Fish and Fisheries Products
a) Fresh Products
a1
) Pomfret and Threadfin • Containers, made of either
plywood, Country wood or plastic
• Polyethylene lined insulated boxes
a2
) Mackerel and Sardines • Suitable containers of sufficient
strength
• Polyethylene lined insulated boxes
a3
) Seerfish • Polyethylene lined insulated boxes
Polyethylene lined dealwood boxes
b) Frozen Products
b1
) Prawns • Polyethylene lined insulated LDPE
coated cartons
• LDPE bags
b2
) Frog legs and Lobster trils • Plywood or dealwood cases
• Cardboard cartons
b3
) Pomfret, threadfin, mackerel, • Suitable containers which can
seerfish, sardines withstand the stress and strain
b4
) Cuttlefish and squid • The fillets of uniform sizes should be
laid flat in the specific carton with
a polyethylene lining
• Fillets of uniform size shall be rolled
loosely in torpedo shape and laid in
layers in the selected carton which shall
be covered by polyethylene sheet
• The frozen fillets of cuttlefish or tubes
of squid may be packed inside a
polyethylene pouch of suitable size or
wrapped with polyethylene film
c) Canned Products • Internally and uniformly lacquered
cans
33. 405
2 Meat and Meat Products
a) Meat (Fresh, Chilled)
a1
) Packaging of meat including • Wrapped in polyethylene sheets or
whole carcasses for local market bags
• Wrapping material like BONF/LDPE
• PET/LDPE
a2
) Packaging of meat for distant • Polyethylene sheets
markets • Suitable wrapping material like
BONF /LDPE or PET / LDPE
(vacuum packed)
a3
) Packing of whole frozen • Wrapped first in hosiery or linen cloth,
carcasses for distant market then in kraft paper or Polyethylene
film and finally in hessian cloth
b) Meat Products
b1
) Fresh sausages • Polyethylene bags
• Butter paper and then in kraft paper
• Wrapping material, such as, BONF /
LDPE, PET / LDPE
b2
) Cooked meat products • Wrapped in butter paper and then put
in big polyethylene cover
• Wrapping materials such as, BONF/
LDPE, PET/LDPE
b3
) Smoked ham or bacon • Wrapped in grease-proof cellophane
material or butter paper
c) Canned Meat Products
c1
) Pork luncheon meat and pork • Each can should be coated on the inner
sausages side with edible gelatin, lard or lined
with vegetable parchment paper
c2
) Ham, mutton and goat meat • Open top sanitary cans, hermatically
curried and in brine sealed
Sr. Food Product Packaging Materials
No.
34. 406
Sr. Food Product Packaging Materials
No.
d) Poultry and Poultry Products
d1
) Dressed Chicken • Polyethylene bags (50µ)
d2
) Chicken Essence • Hermetically sealed ampoules
d3
) Egg Powder • Tinplate containers
• Flexible pouches of PET / LDPE
XII PACKAGING OF OIL AND FAT
1 Oil • Tinplate containers
• Glass bottles
• Rigid plastic containers of HDPE,
food grade PVC, PET
• Flexible pouches made of plastic film /
foil / laminate
• Flexible pouches of BONF/ionomer
and co-extruded nylon/ionomer.
2 Fat(vanaspati,bakeryshortening,etc.) • Flexible packs
• Tin containers
35. 407
APPENDIX TABLE 2
Thermoplastics for Food Contact Applications
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
Bakery Food
1) Biscuits LDPE, HDPE, PP, PS, Bags, containers None
PVC, ABS Containers None
Coatings of EVA, NC, Wrappers As coatings on paper,
PVDC, acrylic, VC-VA, BOPP, cellophane, foil
PW in laminated form
2) Bread LDPE, PP, HDPE, PS, Bags None
LDPE, HDPE, PP Containers None
Coatings of EVA, NC, Wrappers As coatings on paper,
PVDC, acrylic, VC-VA, BOPP, cellophane
PW
Beverage Items
1) Coffee Powder LDPE, HDPE, PP Bags For instant coffee,
NC, PVDC Coatings Bags usually foil laminated
coatings used on
cellophane, BOPP
PS, HDPE, PVC, Containers None
ABS, PP
2) Tea LDPE, HDPE, PP Bags, liners Plain or paper coated
Coatings of PVDC, NC Wrappers, Plain PVDC, NC
Metallised Polyester chest liners coatings on cellophane
3) Malted and LDPE, HDPE Pouches, liners In laminated form with
coco-based aluminium foil, HDPE
beverage used without foil in
powders la-minated form
Cereal Products
1) Cereals and LDPE, HDPE, PP Bags, liners As such and laminated
grains to paper
PW Liners Coated on paper
2) Cereal Flours LDPE, HDPE Bags, liners Coated on paper,
cellophane
36. 408
3) Corn Flakes LDPE, HDPE Bags None
PW, PVDC, EVA Liners Coated on paper,
cellophane
4) Processed LDPE, HDPE Bags, liners As such and
starchy laminated to paper
products
5) Oats (cooked) LDPE, HDPE Liners Laminated to paper,
foil
6) Barley powder LDPE, HDPE Bags, liners Laminated to paper
Confectionery Items
1) Boiled sweets LDPE, PP, HDPE, PVC Bags None
NC, PW, PVDC Individual Coatings on paper,
Acrylic, EVA Wraps cellophane, BOPP, foil
2) Chocolate, LDPE, PVC, HDPE Pouches Laminated to
coated cellophane and foil
caramels
PVDC, EVA, PW Individual wraps Coated to foil, paper,
cellophane, BOPP
Rigid PVC, HDPE Containers None
3) Chewing gums LDPE, HDPE Strip packs Laminated to glassine
4) Cakes LDPE, PVC Bags None
Polyester, BOPP Wraps None
PW, NC, PVDC Wrappers Coated on paper,
Cellophane
PS, HDPE Trays None
Dehydrated Fruits
and Vegetables
1) Dehydrated LDPE, PP Pouches Laminated to foil
Vegetables
HDPE Bags None
2) AFD vegetables LDPE, EVA Pouches Laminated to foil
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
37. 409
3) Dried fruits LDPE, PP, HDPE Bags None
NC PVDC Bags Coated on cellophane
Edible Fat
1) Vanaspati HDPE, PVC, ABS Containers None
LDPE Diaphragm for Laminated to foil
containers
2) Edible HDPE, PVC, ABS Containers None
vegetable LDPE Pouches Laminated to foil,
oils paper or other
thermoplastics
3) Ghee LDPE, HDPE Bags None
Snacks, Fruits and
Vegetables
1) Fresh fruits LDPE, PP, PVC, HDPE Bags, sleeves None
and vegetables with or without
perforations
Cellulose acetate, PS Windows None
PVDC, NC Over wraps Coatings for
cellophane
2) Frozen fruits LDPE, HDPE Bags As such, laminated to
PW,EVA Cartons Cellophane
Coatings on board
3) Dried snacks LDPE, HDPE Bags As such, laminated to
cellophane, BOPP,
polyester
NC, PVDC, Acrylic Bags Coated on cellophane,
BOPP
Indian Sweets
1) Shreekhand ABS, HIPS, HDPE, Containers None
LDPE
2) Laddu ABS, HIPS, HDPE Containers None
LDPE
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
38. 410
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
3) Rasogolla ABS, HIPS, HDPE Containers None
LDPE
4) Peda HDPE, LDPE Filling None
Meat and Poultry
Products
1) Fresh meat LDPE, PVC, PVDC, Bags As such and laminated
Nylon, HDPE form
PS Trays None
2) Cooked meat LDPE, PVDC, Nylon, Bags As such and laminated
HDPE form
3) Cured meat LDPE, POLYAMIDE, Pouches Laminated to BOPP,
HDPE cellophane, polyester
PVDC, PVC, HDPE Bags None
Polyester, polyamide Trays None
Milk and Milk
Products
1) Liquid milk LDPE, HDPE Bags, pouches As such and in
laminated form
LDPE, HDPE Containers None
PW,EVA Cartons Coated on board
2) *Whole milk LDPE, HDPE Bags, pouches Laminated to paper
powder/ and foil
Skimmed HDPE Bags, containers None
milk powder
PVDC Bags Coated to cellophane
3) Yoghurt/Dahi HDPE, ABS, HIPS, PP, Containers None
Cellulose acetate,
PVC
4) Butter/ NC, PVDC, VC-VA Pouches Coating on cellophane,
Margarine Foil
PVC, ABS, PP, HDPE, Containers None
HIPS
39. 411
5) Hard cheese NC, PVDC, HDPE, Wrappers and NC, PVDC as coating
LDPE, HDPE Pouches
PVDC Bags None
6) Processed LDPE, HDPE Pouches Laminated to
cheese cellophane,
BOPP, polyester, foil
PS, ABS, HDPE Containers None
Poultry Products
1) Dressed PVDC, LDPE, PP Shrinkable bags None
poultry
2) Shell eggs PS, ABS, HIPS, PVC Trays None
Spice Powder
1) Ground LDPE, HDPE Pouches Laminated to
spices cellophane,
glassine, foil, polyester
PVC, HDPE Containers None
2) Curry LDPE Pouches Laminated to
powders cellophane,
Foil, polyester, BOPP
PP, PVC Containers None
Semi Liquid
Products
1) Honey HDPE, PP, PVC, LDPE, Containers None
PS
2) Pickles PVC, HDPE, PP, PET Containers None. Discolouration of
container possible
with pickles containing
mustard
3) Sauces PVC, HDPE, PP, PET Containers None
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
40. 412
Food Product Thermoplastics Most common Normal Combination,
that may be used in form of usage if any, with other
contact with food Substrates
4) Jam, Jellies ABS, PS, HIPS, PP, Containers None
HDPE, PET, PVC
5) Fruit juices, HDPE, PVC, PET Containers None
squashes,
syrups
LDPE Pouches Laminated to foil
6) Mineral water, PVC, PET, HDPE Containers None
Beer and PET, PVC Containers None
carbonated
soft drinks
7) Ice cream ABS, HIPS, HDPE, Containers None
LDPE PP
8) Wine/ PVC Containers None
Alcohol
Miscellaneous
1) Salt LDPE Bags None
Containers None
2) Instant mix HDPE Bags None
food LDPE Containers Laminated to foil
* For whole milk powder, foil is an essential substrate of the package – for baby
food ( spray dried ) gas packing is recommended by ISI.
41. 413
References
1. Modern Food Packaging, National Standards on Packaging Code for Foodstuffs and Perishables
by K. K. Sharma, Raj Pal, BIS
2. IIP Volumes on Packaging
3. Packaging India, Apr–May ’02, International Organisation for Standardisation (ISO)
4. Packaging India, Feb–Mar ’02, The Development of Hygiene in Packaging by Matt Evuart
5. Packaging India, Jun–Jul 2000, International Standards for Food Packaging by A. R. Gulati,
P. K. Sharma, BIS
6. Packaging India, Oct–Nov 2000, The Quality Standard for the New Millenium ISO 9000 : 2000 by
Sohrab, Chief Executive, Quality Care and UNIDO / ESCAP Consultant
7. Packaging India, Dec ’02–Jan ’03, The Agreement on the Application of Sanitary and
Phytosanitary Measures and its Relation to Technical Barriers to Trade by Ramesh V. Bhat,
V. Sudershan Rao, Food & Drug Toxicology Research Centre, National Institute of Nutrition,
Lucknow
8. Modern Food Packaging, Food Packaging, International Standards Related to Food Safety,
Quality and Trade by John R. Lupien, Food and Agriculture Organisation of the United Nations,
Food & Nutrition Division
9. Motivation for and Cost of HACCP in Indian Food Processing Industry by Satish Y. Deodhar,
Faculty, Centre for Management in Agriculture, IIM, Ahmedabad
10. Relevant Indian Standards listed in the write-up