Candy Packaging Options: Pouches, Jars, Closures and Barrier Requirements

Candy Packaging Options: Pouches, Jars, Closures and Barrier Requirements

Short Answer

Candy can be packed in transparent or opaque bags, flat pouches, stand-up pouches, flat-bottom pouches, side-gusset bags, pillow bags, flow wraps, jars, tubs, buckets, cartons, display boxes, tins, cups, trays and many other formats. Packages can use permanent heat seals, tear notches, laser scoring, press-to-close zippers, slider closures, tamper-evident bands, induction seals, screw caps or snap lids.

However, a factory cannot automatically make every packaging concept simply because the format exists. Packaging feasibility depends on the product, barrier requirement, filling method, sealing equipment, pack dimensions, closure, printing method, order quantity, packaging-material MOQMinimum quantity accepted per order., available converters, line speed, artwork timing and validation tests.

The correct package is not selected only by appearance. It must protect the product from the main failure mechanism:

• gummies can become sticky, hard or deformed;
• sour-coated candy can lose powder or develop a wet surface;
• marshmallows can dry out, stick together or compress;
• freeze-dried products can rapidly absorb moisture and lose crispness;
• air-dried fruit can gain or lose moisture, oxidise, darken or become vulnerable after opening.

China's packaging ecosystem is highly flexible, so most commercially realistic concepts can be developed. But the product factory, packaging converter, printer, closure supplier and packing facility may be different companies. Buyers should verify who performs each stage and whether the proposed package has been tested with the actual product.

Who This Guide Is For

This guide is for candy brands, retail buyers, importers, distributors, marketplace sellers, private labelProduct made for the buyer’s brand. teams and product developers sourcing:

• molded gummies and jelly candy;
• sour belts, strips, ropes and coated gummies;
• marshmallows and foam candy;
• freeze-dried candy and freeze-dried fruit;
• air-dried or dehydrated fruit;
• chocolate-coated candy, nuts, fruit or marshmallow;
• mixed confectionery assortments.

1. Packaging Is a System, Not Just a Bag

A finished product typically has three packaging levels.

Primary packaging contacts the food directly: the pouch, individual flow pack, jar, cup, inner film or liner.

Secondary packaging groups units or creates retail display: inner box, display box, tray, multipack sleeve, gift box.

Tertiary packaging protects the shipment: master carton, dividers, corner protection, pallets, stretch film and transport labelling.

A beautiful pouch will not compensate for a failing seal. A strong carton will not compensate for an inadequate film barrier. A zipper will not extend shelf lifePeriod product remains within specification. if water vapour passes through the material. Primary, secondary and transport packaging must therefore be evaluated together.

AXTIMES project experience shows that product manufacturing and packaging are often separate workstreams. A factory may produce stable gummies but be unable to weigh small fills accurately, arrange belts in rows, apply variable labels, handle fragile freeze-dried product or assemble a complex retail display. Both product and packaging capability must be confirmed independently.

2. Can Candy Factories Make Almost Any Packaging?

Almost any commercially realistic concept can be achieved, but not every factory owns every machine.

A project may involve:

1. the Product Factory, which manufactures the candy;
2. a Packaging Converter, which prints and converts film into pouches;
3. a Closure Supplier, which provides zippers, sliders, caps or seals;
4. a Packing Facility, which fills and seals the package;
5. a Carton Supplier, which makes retail and master cartons;
6. the Export Company, which coordinates specifications, samples, artwork, timing and readiness.

One factory may control the whole chain, or it may subcontract. Subcontracting is not inherently a problem. The risk is when the buyer does not know where final packing occurs, which line is used and who is responsible for defects.

What limits flexibility includes:

• machine type and seal range;
• minimum and maximum bag dimensions;
• product stickiness, fragility, length or dustiness;
• rollstock vs premade-pouch equipment;
• seal temperature and line speed;
• printing-cylinder or plate limitations;
• jar-neck and lid compatibility;
• expected production volume;
• food-contact and destination-market requirements;
• time required for artwork, printing and delivery of packaging materials.

3. Main Flexible Packaging Formats

3.1 Pillow Bag

A pillow bag is formed from rollstock, usually on a vertical form-fill-seal machine. It has a back seal and top and bottom seals. It is one of the most common and efficient formats for loose candy.

Typical uses: gummy bears and mixed gummies; marshmallows; small freeze-dried pieces; economy and mainstream retail packs.

Advantages: high packing speed; efficient material use; broad size range; good compatibility with automatic weighing; transparent, printed, metallised or high-barrier versions.

Limitations: does not stand upright without additional design features; standard versions are not reclosable; excess headspace can reduce shelf presentation.

3.2 Horizontal Flow Wrap

A horizontal flow wrapper forms film around a product moving horizontally. It creates a fin or lap seal along the pack and end seals at both sides.

Typical uses: individual marshmallow bars; gummy strips arranged in a row; gummy rolls; bars, ropes and novelty pieces; small multipacks.

Flow wrapping is useful when product orientation matters. It allows high-speed individual wrapping, but the product must feed consistently into the machine.

3.3 Three-Side-Seal Flat Pouch

A three-side-seal pouch is flat, sealed on three edges, with the fourth filled and closed later. It can include a tear notch, zipper or clear window.

Typical uses: sample packs; small retail portions; premium single-serve freeze-dried candy; flat novelty candy.

3.4 Four-Side-Seal Sachet

A four-side-seal sachet has seals on all four edges, commonly used for small controlled portions: one gummy ring; a single freeze-dried piece; sample portions; promotional inserts. This format can protect each unit but creates high packaging cost per kilogram.

3.5 Stand-Up Pouch or Doypack

A stand-up pouch uses a bottom gusset that opens to form a base. It is one of the most popular formats for private label candy because it combines strong shelf presentation with relatively low weight.

Common options: permanent top seal; press-to-close zipper; slider zipper; tear notch; laser-scored easy opening; hang hole; handle; transparent window; matte, gloss, soft-touch or paper-look finish; clear, white, metallised or foil-based structure.

The final dimensions must be tested with the actual product density and fill weight. Light freeze-dried pieces may require more volume than expected. Sticky products may contaminate the zipper.

3.6 Flat-Bottom or Box Pouch

A flat-bottom pouch has a stable base and multiple printable panels. It creates a box-like shelf appearance while remaining flexible.

Advantages: premium shelf presence; high stability; efficient use of display space; large branding area; optional zipper or slider.

Typical uses: premium gummies; freeze-dried candy; dried fruit; coated nuts; marketplace products requiring strong visual presentation.

3.7 Side-Gusset Bag

A side-gusset bag expands at the sides rather than primarily at the bottom. Typical uses: larger candy packs; bulk retail products; marshmallows; dried fruit; family-size and food-service packs.

3.8 Quad-Seal Bag

A quad-seal bag has reinforced vertical seals at four corners, giving a more defined rectangular shape and improved structural strength. Typical uses: larger or heavier packs; premium family-size products; bulk retail confectionery.

3.9 Shaped Pouch

A shaped pouch is die-cut into a non-rectangular silhouette. Main limitations: lower packing efficiency; more complex sealing geometry; higher tooling cost; possible difficulty standing or stacking; higher risk of weak corners. A shaped pouch should be tested as a package, not approved only as a graphic rendering.

3.10 Paper-Based or Paper-Look Pouch

Paper-based and paper-laminated pouches can create a natural or premium appearance. Buyers must distinguish: visual paper appearance; actual paper content; food-contact layer; heat-seal layer; moisture and oxygen barrier; recyclability claim; local disposal instructions. A paper look does not prove that the pack is paper-recyclable, compostable or suitable for a moisture-sensitive product.

4. Rollstock vs Premade Pouches

Rollstock is printed film in a roll from which the pouch is formed directly on line. This is efficient for high volumes, pillow bags, flow wraps and some stand-up formats. Limitation: requires precise match to equipment width, roll direction and print MOQ.

Premade pouches are manufactured by a converter; the food plant only opens, fills and seals. This format suits zipper stand-up pouches, flat-bottom pouches, shaped pouches and mid-volume premium packaging. More design flexibility, but higher cost per unit and still requires compatible filling equipment.

5. Transparent, Opaque, Metallised or Windowed Packaging

Fully transparent packaging allows consumers to inspect colour, shape and quantity. It works well for visually attractive gummies, marshmallows and mixed assortments. Risks: colour variation and broken pieces are more visible; basic clear film may not provide adequate moisture or oxygen barrier. Transparency describes appearance, not performance.

Fully opaque packaging hides the product and offers maximum artwork area. It can improve light protection and suits light-sensitive products, chocolate-coated candy, freeze-dried candy and premium branded ranges.

Metallised packaging uses a thin deposited metal layer to improve barrier and create a metallic appearance. Lighter and more flexible than foil, but performance should not be assumed identical to foil.

Foil laminate provides very strong light, oxygen and moisture protection when the laminate and seals remain intact. Flex cracking, pinholes and seal design still matter.

Transparent window combines an opaque or metallised body with a clear window. This balances product visibility and protection, but the window may be the weakest barrier area. The complete pack must be evaluated, not only the main film panel.

6. Closure and Opening Options

Permanent heat seal provides the main hermetic closure for most flexible candy packs. Even a zipper pouch should normally have a sealed section above the zipper before first opening.

Tear notch — a small notch guides the consumer to start a tear. Inexpensive but depends on correct positioning and film tear behaviour.

Laser score — weakens a controlled section for easier opening. Can create a cleaner tear than a notch, but the score must not compromise barrier or seal integrity.

Press-to-close zipper — the common interlocking zipper used on many stand-up pouches. Points to verify: can it open and close reliably; does powder or sticky product contaminate the tracks; is there a first-opening seal above the zipper; is there enough headspace for the user to reclose.

Slider zipper — moves across the zipper profile and improves ease of use, especially for larger packs. Adds cost, components and machine requirements.

Hook-to-hook or tactile closure — some pouches use alternative interlocking profiles designed to be easier to align. Availability depends on the closure supplier.

Resealable adhesive flap — can be used on some flow-wrap or multipack formats. Unsuitable for dusty, sugary or oily contact areas.

Tamper-evident tear strip — a removable top section, perforated band or scored area shows whether a pouch has been opened.

Jar closures — screw caps; snap-on lids; hinged lids; tamper-evident bands; induction-sealed foil liners; pressure-sensitive liners; inner plugs or membranes. The lid, neck finish and liner must be specified together.

7. Rigid Packaging Formats

PET or PP jars — widely used for gummies, marshmallows, coated candy and mixed assortments. Advantages: product visibility; reclosability; crush protection; premium presentation. Points to verify: food-contact material; cap and neck dimensions; liner or induction seal; tamper evidence; headspace; drop resistance.

Tubs and buckets — for bulk, food-service, wholesale and repacking formats. Protect soft or sticky products better than flexible bags, but increase shipping volume and weight.

Glass jars — strong barrier and premium appearance. Adds weight and breakage risk; requires dividers, stronger cartons and transport testing.

Tins and metal containers — support gifting, seasonal ranges and long-term brand reuse. The product usually still requires an inner food-contact bag or liner.

Composite cans and paper tubes — distinctive cylindrical presentation with paperboard walls and internal barrier layers. Barrier, seam integrity and inner-liner requirements must be checked.

Cups, trays and clamshells — useful for fragile pieces, individual servings and novelty assortments.

Blister packs — separate individual pieces, provide portion control and tamper evidence. More common for functional gummies or premium presentation than ordinary bulk candy.

8. Individual Wrapping and Multipacks

Candy can be packed as: individual pillow wraps; twist wraps; fold wraps; four-side-seal sachets; stick packs; mini pouches; mini cups; blister cavities; inner packs inside a display carton; mixed sachets inside an advent calendar or gift box.

Individual wrapping improves hygiene, portion control and flavour separation. It also increases packaging material, line complexity, cost and the number of seals that can fail.

For very small pack weights, verify: whether pieces are counted or weighed; whether manual placement is required; net-weight tolerance; packaging-to-product ratio; speed of the packing line.

9. Packaging Requirements by Product Type

10. Gummies

Gummies require a package that helps maintain the intended moisture equilibrium. A pack that allows excessive moisture loss can produce a harder product. Moisture gain can increase stickiness, surface dissolution and microbial risk.

The pack should be evaluated for: product-to-film sticking; seal contamination; oil or wax marks; deformation under stacking pressure; net-weight tolerance; behaviour after temperature cycling; shelf stability after opening if a zipper is used.

11. Sour-Coated Gummies and Belts

Sour sanding creates additional packaging challenges. Acid and sugar crystals can absorb moisture and form a wet or syrupy surface. Loose powder can collect at the bottom of the bag or enter the seal area.

AXTIMES project experience shows that heavy sour coatings can limit packing geometry. Twisting, rolling or tightly compressing belts can create friction and pressure that move the coating, dissolve it or form a paste-like layer. A flatter arrangement may preserve the surface better.

Packaging tests should evaluate: loose coating after filling and transport; powder contamination in seals or zippers; stickiness between pieces; coating appearance after warm storage; whether row arrangement, random fill or rolling is appropriate.

12. Marshmallows

Marshmallows are lightweight, soft and compressible. Their texture can deteriorate if moisture is lost, while excess moisture can increase sticking.

Common solutions: pillow bags, stand-up pouches, jars and tubs. Important cautions: vacuum packaging is normally unsuitable because it compresses the product; a tightly filled pouch can deform pieces; fine starch, sugar or anti-stick powder can contaminate seals; the package should be tested after stacking and transport vibration.

13. Freeze-Dried Candy and Freeze-Dried Fruit

Freeze-dried products are porous and highly hygroscopic. They can reabsorb moisture rapidly, losing crispness and potentially changing structure, flavour and shelf stability. Packaging must be completed quickly in controlled conditions.

The package usually needs: very low water-vapour transmission; reliable heat seals; puncture resistance; oxygen protection where relevant; light protection for sensitive colours; enough mechanical protection for fragile pieces; controlled headspace; optional desiccant, oxygen absorber or inert-gas strategy.

A basic transparent polyethylene bag can be inadequate for a long shelf-life target. Vacuum can crush fragile pieces; nitrogen flushing or protective headspace may be more appropriate. Rigid jars can reduce breakage, but the closure and liner must provide sufficient moisture protection.

Desiccants and oxygen absorbers are not interchangeable: a desiccant manages moisture in the headspace; an oxygen absorber reduces oxygen after sealing; neither compensates for a leaking seal or inappropriate film.

14. Air-Dried or Dehydrated Fruit

Air-dried fruit usually contains more residual moisture than freeze-dried fruit. The package must control both moisture gain and moisture loss.

Possible failures: drying and hardening; moisture gain and stickiness; oxidation and colour darkening; flavour loss; mould growth after opening. A zipper improves consumer convenience but does not restore the original sealed environment after opening.

The required barrier depends on fruit type, residual moisture, water activity, sugar or preservative system, oxygen sensitivity and shelf-life target. One material should not be copied across all dried-fruit SKUs without testing.

15. Main Flexible Packaging Materials

A flexible package is often a multilayer structure in which each layer performs a different function.

PE (polyethylene) — commonly used as a sealant layer. Offers good moisture resistance and heat sealing. Oxygen and aroma barrier depend on grade and structure.

PP and BOPP — polypropylene films are used for clarity, stiffness and machine performance. BOPP is common in confectionery. Barrier varies by coating and laminate.

PET — provides strength, print quality, dimensional stability and heat resistance. Often laminated to a sealant layer.

PA or nylon — can improve puncture resistance and toughness where mechanical durability is important.

EVOH — an oxygen-barrier layer used within multilayer structures. Performance is affected by moisture and depends on the complete laminate design.

Metallised PET or metallised films — metallisation can improve oxygen, moisture and light barrier while reducing weight compared with foil. Performance depends on coating quality, flexing and laminate structure.

Aluminium foil — provides very strong barrier but may crack or develop pinholes if mishandled. Normally laminated with other layers for strength and sealing.

Paper and coated paper — adds stiffness, print character and a natural appearance. Normally requires coatings or laminates to provide sealing and barrier.

Mono-material structures — recyclability claims should be supported by testing in the destination market's waste stream. A mono-material structure may still not be accepted in all collection and sorting systems.

16. OTR, WVTR and Other Packaging Metrics

Two common barrier measurements:

• OTR (Oxygen Transmission Rate) — the rate at which oxygen passes through a material or package under stated test conditions.
• WVTR (Water Vapour Transmission Rate) — the rate at which water vapour passes through a material or package under stated conditions.

These values are meaningful only with the test temperature, humidity, material thickness and method. Results measured under different conditions should not be compared blindly.

Other relevant checks: seal strength; hot-tack performance; burst resistance; leak testing; puncture resistance; flex-crack resistance; coefficient of friction; ink adhesion and rub resistance; closure-cycle testing; compression and drop performance of the complete pack.

There is no universal OTR or WVTR target for "candy." The correct target comes from the product's sensitivity, package area, desired shelf life, storage climate and acceptable quality change.

17. Filling and Packing-Line Compatibility

A packaging design should be approved only after confirming how the product enters the pack.

Weighing — multihead weighers are common for free-flowing pieces. Sticky gummies, long belts, fragile freeze-dried pieces or very low target weights may require specialised settings, counting, linear weighing or manual feeding.

Counting — provides a defined piece count but requires consistent piece size and reliable separation.

Orientation — random filling is efficient, but some products need row arrangement, stacking or individual placement. Manual arrangement increases labour and may limit speed.

Seal contamination — sugar, acid powder, starch, oil, crumbs or fruit particles in the seal area can cause leaks.

Product temperature — warm product can create condensation, soften coatings or affect sealing. The product must be sufficiently conditioned before packing.

Fragility — freeze-dried pieces and delicate coated products can break in hoppers, weighers, drop chutes and bagging machines. The entire transfer path must be evaluated.

18. Printing and Decoration Options

Packaging can be decorated by: rotogravure printing; flexographic printing; digital printing; labels; shrink sleeves; direct printing on jars or lids; hot foil or metallic effects; matte, gloss, soft-touch or textured coatings; spot varnish; holographic or specialty films.

Lowest-complexity route — a stock transparent or plain pouch with a compliant sticker label has the lowest development barrier. It is useful for samples, pilots, wholesale packs and early market tests.

Custom printed film — improves brand presentation and automated packing efficiency, but normally requires artwork approval, colour control, print MOQ, plates or cylinders, and additional lead timeTime from order approval to readiness..

Digital printing — can reduce minimum quantities and avoid some plate costs, but available materials, colours, finishes, pouch sizes and unit economics differ from conventional printing.

Custom rigid packaging — a stock jar with a label is far easier than a completely custom mould. A new rigid-container mould requires tooling, dimensional approval and a much larger volume commitment.

19. Artwork, Dielines and Mandatory Information

The designer should work from the final supplier dieline, not from an estimated rectangle.

The artwork pack should define: finished package dimensions; seal areas; zipper, notch and laser-score positions; gusset folds; clear-window boundaries; barcode quiet zones; date-code and batch-code area; front, back, side and bottom panels; print colours and special finishes; language versions; legal and importer information required for the destination; tolerances for cutting and registration.

Mandatory information on consumer candy packaging typically includes: product name; ingredients list; allergen declaration; net weight; best-before or use-by date; batch or lot code; country of origin; manufacturer or importer name and address; storage conditions; nutrition information where required; language compliance for the destination market. Labelling requirements for the EU are governed by EU food law, while international baseline standards are set by the Codex Alimentarius General Standard for the Labelling of Prepackaged Foods.

20. Packaging MOQ and Cost Drivers

Packaging cost depends on: format complexity; material structure; number of print colours; special finishes; film or pouch quantity per order; zipper or slider type; jar size and closure; secondary carton; artwork changes per SKUOne distinct sellable product unit.; supplier location and tooling.

Rollstock and printed pouches normally require a minimum print run that varies by supplier and format. Premade pouches often have a lower piece-count MOQ but may still require a minimum per size and artwork. Rigid containers — jars, tins and custom-shaped pouches — may require tooling or mould cost on top of unit price.

For pilot orders, a stock unprinted or plain-printed pouch combined with a compliant label can reduce upfront commitment while the buyer validates the product and sales channel.

21. Packaging Validation Before Mass Production

Recommended checks before committing to full production:

1. Fit test — does the product fit the intended dimensions and headspace?
2. Filling test — can the line achieve the net weight consistently?
3. Seal test — are seals complete and free from contamination?
4. Closure test — does the zipper, slider or lid work repeatedly?
5. Drop test — does the pack survive realistic handling?
6. Compression test — does stacking deform the product or package?
7. Vibration or transit test — do pieces break or coatings fall off?
8. Temperature and humidity test — does the product remain stable?
9. Shelf-life test — does the package maintain agreed quality over time?
10. Print and coding check — are colours, barcode, date code and batch code readable?

22. Common Buyer Mistakes

Selecting packaging by appearance only — visual format preference is a starting point, not a selection criterion. Barrier, line compatibility, fill weight and closure behaviour must also be evaluated.

Copying a competitor's packaging without understanding its specification — the competitor's film structure, laminate thickness, barrier values and seal design are not visible from the outside.

Assuming all clear bags are equivalent — a basic PE bag and a high-barrier transparent laminate look similar but perform differently.

Requesting a zipper on all pouches — a zipper adds cost, equipment requirements and potential contamination risk. It is not always appropriate for small packs, short shelf lives or products that contaminate the closure.

Finalising artwork before dieline is confirmed — artwork produced to estimated dimensions often cannot be used. Dieline changes after artwork approval create rework and delay.

Changing the package or product after validation — a pack test result is specific to the tested combination. Changing the film, zipper, fill weight, net weight or product density can invalidate the result.

Underestimating packaging lead time — printed film and premade pouches require ordering, production and delivery before the packing stage can be scheduled. Packaging is often on the critical path for production readiness.

23. Questions to Ask the Factory

Format and line:

• What filling machine is used and what is its seal range?
• Can this format be run with the current equipment?
• What is the maximum and minimum achievable pack weight for this product?
• Is the same line used for the sample and mass production?

Material and protection:

• What film or container structure is proposed?
• Which layer provides sealing, moisture barrier and oxygen barrier?
• Are OTR and WVTR data available under stated test conditions?
• Are desiccant, oxygen absorber or gas flushing required and validated?

Closures and convenience:

• Can the pouch include a zipper, slider, tear notch or laser score?
• Is there a tamper-evident first-opening seal?
• Can the zipper remain clean during filling?

Printing and artwork:

• Which printing method is proposed?
• What is the packaging MOQ per artwork?
• Are plates, cylinders or tooling required?
• What dieline and colour profile should the designer use?
• Where will the batch code and date code be printed?

Testing and quality:

• Can the factory run a filled packaging test before the full print order?
• How are seal integrity and net weight checked?
• What shelf-life and transport tests support the proposed package?
• Can production samples be reviewed before shipment?

24. Buyer Packaging Brief Checklist

Before requesting quotations, define:

• product type and condition;
• piece dimensions and density;
• target texture and fragility;
• coating or powder;
• net weight;
• servings and intended opening frequency;
• preferred flexible or rigid format;
• stand-up or lay-flat requirement;
• transparent, opaque or windowed appearance;
• zipper, slider, lid or other closure;
• hang hole, handle or display requirement;
• target shelf life;
• storage and transport climate;
• destination market;
• sales channel;
• expected volume per SKU;
• printing and finish preferences;
• carton and display requirements;
• reference package;
• sustainability requirements that need verification;
• testing and approval process.

From Our Sourcing Practice

Packaging is consistently the most underestimated workstream in candy sourcing. Across more than 80 factory relationships in Guangdong — including dedicated packing converters in Foshan and Dongguan's gummy production clusters — we find that buyers typically begin thinking seriously about packaging two to three weeks before they want to ship. That timeline is only workable if everything is stock. For any custom printed film, premade pouch or rigid jar, the real timeline from artwork approval to packaging material on the factory floor is four to six weeks — and that only works if the dieline, regulatory content and colour files are all correct on the first submission.

In one project for a German private-label distributor launching a freeze-dried gummy line, the packaging brief was handled as a design task rather than a technical brief. The selected stand-up pouch looked exactly right — matte finish, euro-slot, slider zipper. What was not confirmed: the film's water-vapour transmission rate was unsuitable for freeze-dried product, the slider contaminated badly after three trial fills, and the total pouch dimensions were 8 mm narrower than the factory's fill-and-seal machine required. We caught all three issues during our pre-production packaging audit, but it added six weeks to the timeline and required a complete converter change. From that point forward, our standard practice is to run a three-point check — barrier rating, seal test, line-compatibility confirmation — before the final artwork file is ever submitted.

The other issue that appears in almost every first-order project is moisture. Buyers who specify a "transparent bag" for their gummies or "a nice matte pouch" for freeze-dried candy sometimes do not know that the material choice directly controls whether the product remains sellable at the end of its shelf life. EU food safety and food materials regulations and FDA rules for food-contact materials both impose specific requirements on primary packaging that must be confirmed before production. A packaging specification is a regulatory document, not a style guide.

— Amanda XUN, Head of Sourcing, AXTIMES

25. Recommended Next Step

Treat packaging selection as an engineering and sourcing decision, not a late-stage graphic-design task.

The recommended sequence is:

1. define the product and shelf-life target;
2. identify the main moisture, oxygen, light and mechanical risks;
3. shortlist feasible pack formats;
4. confirm the factory's filling-line capability;
5. obtain material and closure specifications;
6. test the product in the actual package;
7. approve dimensions and dieline;
8. finalise artwork;
9. confirm carton and transport configuration;
10. retain the approved package as part of the production specification.

Send AXTIMES your product, destination market, target pack weight, reference packaging and expected volume. AXTIMES can coordinate the Product Factory, packaging supplier and packing process, compare feasible formats and identify the main risks before mass production.

Sources and Verification Notes

This article combines anonymised AXTIMES project experience with current technical references. Technical references reviewed include: ASTM International standards for oxygen transmission, water-vapour transmission, seal strength, burst, leak and puncture testing; flexible packaging and pouch-format information from Amcor, Mondi, ProAmpac, Sealed Air, Mespack, MULTIVAC and PAC Machinery; Institute of Food Technologists guidance on moisture control in food packaging; peer-reviewed literature on freeze-dried food hygroscopicity.

Final packaging, food-contact, labeling, recycling and importer requirements depend on the product, destination, sales channel and applicable local rules. They should be confirmed before commercial production.