Top 10 des types d'emballages de crème glacée

Direct answer

Start with the product format. A scoopable pint, family tub, bulk foodservice pack, bar, cone, sandwich, and squeeze-up novelty need different package architectures. Then qualify the complete system—body, primary seal, decoration, secondary pack, case and pallet—using filled production-intent packs.

Key takeaways for a faster shortlist

In this guide

Ice cream packaging is a system, not one container

Ice cream commonly reaches the package while it is still soft and partly frozen. The pack must receive the product, close without seal-area contamination, move through hardening, withstand frozen storage and handling, protect presentation, and support opening, scooping, eating or reclosure. A tub that looks strong on a desk may behave differently after filling, hardening, frost, case compression and temperature cycling.

Break the system into five layers. This prevents a common purchasing error: asking a lid to do the job of a primary membrane, or assuming a retail carton can compensate for a weak individual wrapper.

Round rigid tubs are one option for scoopable retail products; the lid or membrane still needs its own qualified role.

Top 10 types of ice cream packaging at a glance

Use this as a commercial shortlist, not a universal specification. A finished product can combine two types—for example, a flow-wrapped bar inside a multipack carton.

Types 1–6: scoopable retail and foodservice packaging

1. Round paperboard pint or quart tubs

Round paperboard tubs are familiar for premium ice cream, gelato, sorbet and dairy-free desserts. The cylindrical wall creates a strong shelf silhouette and broad print area, while the wide opening supports scooping. However, “paper” is not a complete specification. The food-contact surface, barrier or coating, rim, lid, inks and adhesive all affect performance and recovery.

Choose it when: the brand values a familiar pint experience and high-impact graphics. Prove: wet and fatty food compatibility, rim and lid retention, condensation response, freezer strength, print durability and the actual local recovery route.

Paper appearance does not identify the complete barrier or end-of-life route. Photo: Iryna Varanovich via Pexels.

2. Rectangular or brick-style paperboard cartons

Rectangular cartons can use freezer shelf and corrugated-case space efficiently and provide wide panels for brand, nutrition and serving information. Their engineering risks sit at folds, seams and the top closure. Repeated consumer opening can also challenge corners and reclosure.

Choose it when: family format, shelf blocking or a traditional carton experience matters. Prove: seam and fold integrity, liner or coating continuity, hardening performance, stacking, scoop access and behavior after repeated opening.

3. Rigid plastic retail tubs with lids

Round, oval, square or rectangular molded tubs are considered when repeatable geometry, nestability, low shipping mass, a designed rim and post-opening reclosure are useful. In-mold labeling (IML) is an integrated decoration method within a molded plastic system—not a separate packaging material and not proof of barrier, seal or recyclability.

Choose it when: a strong rim, consistent shape, snap reclosure and durable all-over graphics support the product. Prove: the exact resin grade, wall and rim geometry, lid or membrane interface, low-temperature impact behavior, label and ink construction, nesting/denesting, line fit and destination-market recovery.

4. Single-serve cups with peelable lids

Single-serve cups support portion control, sampling, schools, events, airlines, delivery and impulse retail. They may use a paperboard or plastic body, a peelable membrane and sometimes an overcap or spoon. Small format does not mean simple: fill accuracy, product splash, foam, seal-land flatness, opening force and grouped case protection dominate performance.

Choose it when: controlled portion and convenient eating matter. Prove: the seal window using actual filled cups, consistent code placement, peel after frozen storage, spoon access and damage protection through multipacking and distribution.

5. Plastic foodservice pails or buckets

Foodservice pails serve parlors, restaurants, institutions, caterers and central kitchens. A wide opening can speed scooping, a handle can aid handling, and a lid can protect a partially used pack. The larger product mass also increases the importance of hardening time, stack load, lifting and cold-room workflow.

Choose it when: repeated bulk access and back-of-house efficiency are more important than small retail presentation. Prove: filled mass, handle and lid retention, staff ergonomics, scoop access, hygiene controls after opening, stack height, case/pallet pattern and cold-room storage practice.

Handles, lid retention and stacking need evaluation with the real filled mass and cold-use routine.

6. In-plant formed paperboard bulk containers

Some foodservice systems ship flat components that are formed close to the filling point. This can reduce inbound and warehouse cube, but it adds forming equipment, operator controls, a cover or lid interface and barrier-consistency requirements. Treat it as a manufacturing-system decision, not a simple switch from plastic to paper.

Choose it when: flat shipping and plant-level forming create a measurable operational advantage. Prove: board/barrier construction, forming repeatability, rim integrity, cover fit, maximum stack load, cold-room behavior, operator procedure and performance parity with a preformed pack.

Types 7–10: novelty wrappers, tubes and multipacks

7. Heat- or cold-sealed flexible flow wraps

Flow wraps are a common architecture for coated bars, sticks and molded novelties. The flexible pack follows the product shape, provides an individual portion and carries graphics, but its real performance comes from the film structure, fin or lap seal, end seals, code location and interaction with the product and line.

Choose it when: an individual bar or stick needs a fast, compact primary package. Prove: seal integrity, cold-temperature flexibility, tear opening, product orientation, coating scuffing, code legibility and damage resistance during cartoning and frozen distribution.

8. Cone sleeves, sandwich wraps and shaped-novelty packs

Cones, sandwiches, wafers and irregular novelties need packaging tailored to fragile geometry. The pack may combine a sleeve, flexible wrap, formed paper, tray or hybrid structure. A seal alone is not success if the consumer tears the wafer, the pack scuffs a coating or the outer carton crushes the product.

Choose it when: product shape, crumbs, coatings or exposed wafers need dedicated protection. Prove: registration, seal location, tear path, orientation, cone or wafer breakage, outer-carton support and consumer opening after representative hardening and distribution.

9. Squeeze-up or push-up tubes

Squeeze-up and push-up tubes create a portable single-serve experience. The consumer squeezes the body or advances a pusher, so usability depends on the product’s frozen texture as much as on the tube. Diameter, fill level, product release, closure and opening design are central.

Choose it when: portable dispensing is part of the product concept. Prove: dispense force across the intended serving range, pusher movement, leakage, closure retention, print abrasion, ice buildup at the opening and crushing protection in the outer pack.

10. Multipack cartons, sleeves and retail overwraps

A multipack groups individually wrapped bars, cups, cones, sandwiches or minis. Although it is secondary packaging, it influences freezer-shelf communication, count integrity, barcode placement, primary-pack protection and case cube. Timing matters: grouping before hardening can restrict airflow and create a larger mass to freeze.

Choose it when: retail grouping adds protection, communication or handling value. Prove: ventilation, bundle spacing, hardening sequence, carton compression, pack opening, case utilization and disposal instructions that distinguish outer and inner components.

Shape and capacity influence freezer display, case cube, scoop access, wall loading and hardening airflow. They should be selected together.

Six factors that change the packaging decision

The same package type can perform differently with dense gelato, high-overrun ice cream, fruit sorbet, large inclusions or a coated novelty. Translate the product and route into measurable packaging requirements.

A practical scenario selector

Shelf life depends on hardening and temperature history

Package selection can reduce physical damage and manage selected environmental exposures, but it cannot reverse ice crystal growth caused by unstable storage temperatures. The University of Guelph’s Ice Cream Technology e-book explains that package size, exposed surface, airflow, stacking and early bundling can affect hardening. It also identifies coarse, icy texture as a main shelf-life defect and emphasizes rapid hardening plus stable frozen storage.

This is why a generic claim such as “keeps ice cream fresh for six months” is not credible without a specific formula, process, finished pack, storage temperature profile and acceptance criteria. Shelf-life work should evaluate both package integrity and product-quality endpoints.

Food-contact and environmental claims need exact evidence

Do not approve any ice cream package because a quotation says “food grade” or “FDA approved.” In the United States, FDA says the regulatory status of a food-contact material is determined by the status of the individual substances that comprise the finished article and by their intended use. The food type and condition of use—including frozen storage—must match the supporting authorization or documentation.

Review the complete article: body resin or board, liner or coating, sealant, lid, membrane, label, inks, adhesives, colorants and any recycled-content component. For other markets, use the relevant current legal framework and customer specification. EU projects should account for Regulation (EU) 2025/40 (PPWR), which the European Commission says generally applies from August 12, 2026.

Environmental language requires the same precision. A paper appearance does not prove plastic-free or compostable construction, and a resin identification code does not prove local collection or processing. The U.S. FTC advises against broad unqualified “green” claims and says recyclable claims should be qualified when suitable facilities are not available to at least 60% of consumers or communities where the product is sold.

How to qualify the package before launch

A reliable approval program demonstrates the whole system with filled production-intent packs. Choose methods and acceptance limits from the product, line and route; do not copy a generic force, vacuum or drop number from another pack.

1. Write the product and route profile. Record product type, formula class, inclusions, net content, overrun/density where relevant, fill condition, hardening sequence, storage specification, expected temperature exposure, markets and consumer use.
2. Freeze the component bill of materials. Identify body, barrier/liner/coating, closure or lidding film, sealant, label or IML, inks, adhesives, colorants, multipack, case and pallet. Control substitutions.
3. Run representative line trials. Include start-up, shutdown, realistic product temperature, fill variation and reasonable seal-area contamination challenges. Record settings and defects.
4. Test after frozen storage. Check package integrity, seal strength where applicable, opening, reclosure, brittleness, lid retention, code legibility and consumer handling.
5. Exercise the distribution system. Use filled packs, final cases and palletization. Review compression, drops, vibration and route-representative temperature exposure.
6. Release claims last. Approve food-contact, recovery, recycled-content, disposal and performance language only after evidence matches the final production construction.

What to include in an ice cream packaging RFQ

Give every supplier the same technical and commercial brief. This makes a paperboard tub, molded container, wrapper or specialty concept comparable on the full system rather than on an unmatched unit price.

Six mistakes that create avoidable launch risk

Need a molded ice cream container shortlist?

Honokage focuses on molded IML container projects. Send your product type, target capacity, fill and hardening details, destination market, closure need, annual volume, artwork/SKU count and test expectations so the team can review feasibility and sample options. Paperboard, glass and flexible formats in this guide are comparison alternatives, not a claim that Honokage supplies every format.

Frequently asked questions

What packaging is used for ice cream?

Common systems include paperboard tubs and cartons, rigid plastic tubs and pails, single-serve cups, flexible wrappers for bars, cone and sandwich wraps, squeeze-up tubes, glass specialty packs and multipack cartons. Product format and route determine which architecture belongs on the shortlist.

What is the best packaging for ice cream?

There is no universal best package. The best option is the simplest complete system that has been validated for the actual product, fill and hardening process, storage, distribution, consumer use and destination-market claims.

Are paper ice cream containers recyclable?

Some are accepted in some markets, but the paperboard wall alone does not answer the question. Barrier, liner, lid, label, adhesive, food residue and local collection/sorting all matter. Check the exact finished pack and give market-specific instructions.

Are plastic ice cream tubs safe?

A plastic tub can be suitable when every relevant component is supported for the intended food-contact use and frozen-storage conditions. Resin, additives, colorants, lid, membrane, label and adhesive should match the final construction and market.

What packaging is used for ice cream bars?

Bars commonly use an individual flexible flow wrap followed by a carton, sleeve or case where grouping and protection are needed. Seal geometry, tear opening, coating protection, coding and cartoning sequence should be qualified with the real bar.

Do ice cream containers need a barrier?

They may when the product and target shelf life show a moisture, odor, oxygen, light or other quality risk. Required protection depends on formula, headspace, closure, route and storage. Material data starts the discussion; finished-pack shelf-life work provides the answer.

Can packaging stop ice cream from becoming icy?

Packaging can manage selected exposures and physical damage, but it cannot eliminate recrystallization caused by temperature cycling. Formulation, rapid hardening, stable frozen storage and route control remain essential.

How should suppliers be compared?

Give each supplier the same product, line, component, route, compliance, validation and commercial brief. Compare body, closure, decoration, case, line fit, change control, documents, tooling, lead time and total landed cost—not an isolated cup or wrapper price.

Technical sources

This is a practical procurement guide, not legal advice, a food-safety plan or product-specific shelf-life validation. Confirm current requirements in each destination market and qualify the final food-package-process combination.

• University of Guelph: Ice Cream Hardening — package size, exposed surface, airflow, stacking and bundling in the hardening process.
• University of Guelph: Ice Cream Shelf-Life — iciness, hardening and temperature fluctuation.
• FDA: Determining the Regulatory Status of Components of a Food Contact Material — component and intended-use review.
• FDA: Food Types and Conditions of Use — dairy food types and frozen-storage conditions.
• ASTM F88/F88M-23 — seal-strength testing for flexible barrier materials; it does not set one universal target.
• ASTM F2338-24 — nondestructive vacuum-decay leak testing where the package and fixture are suitable.
• ASTM D4169-22 — laboratory evaluation of shipping units against distribution hazards.
• FTC: Environmental Claims Summary of the Green Guides — qualification of recyclable, recycled-content, compostable and broad environmental claims.
• European Commission: Packaging Waste and PPWR — current PPWR timeline and general application from August 12, 2026.