HSQY supplies 3 compartment CPET trays for frozen ready meals, chilled prepared foods, airline catering, hospitals, schools, central kitchens, Meals on Wheels, contract catering and industrial meal-packing lines. The current category includes ten rectangular black CPET tray models with nominal capacities from 22 oz to 47 oz.
The three-cavity layout is designed for a protein or entrée, a starch such as rice or potatoes, and vegetables, sauce, dessert or another side. Crystallized polyethylene terephthalate provides the thermal stability required for filling, heat sealing, chilling or freezing, transportation, microwave reheating, conventional oven reheating and direct serving.
Quick answer: A 3CP CPET tray is a dual-ovenable food tray with three formed cavities. It supports complete-meal portion control and organized presentation, but the dividers should not automatically be described as liquid-tight, and three different foods may require careful reheating validation.
The table below uses the model-specific information currently published by HSQY. Final dimensions, capacity, weight, case pack and MOQ should be confirmed against the approved drawing because some older product pages contain inconsistent secondary specifications.
| Model | Nominal Capacity | Published Dimensions | Tray Weight | Case Pack | Typical Application |
|---|---|---|---|---|---|
| Model JC03 | 22 oz | 8.50 × 6.40 × 1.49 in | 32 g | 720 | Compact complete meals, airline and institutional portions |
| Model HS09 | 22 oz | 8.50 × 6.40 × 1.49 in | 32 g | 720 | Airline, frozen and catering meals |
| Model 025 | 23 oz | 8.46 × 6.36 × 1.50 in | 30 g | 600 | Small ready meals and portion-controlled programs |
| Model 015 | 25 oz | 8.50 × 6.46 × 1.50 in | 33 g | 360 | Retail ready meals and frozen meal sets |
| Model 017 | 25 oz | 8.46 × 6.36 × 1.50 in | 30 g | 600 | Meal delivery and freezer-to-oven meals |
| Model 008 | 25 oz in category listing; product body also states 27 oz | 8.46 × 6.38 × 1.72 in | 32 g | 600 | Ready meals with entrée and two sides; confirm approved capacity |
| Model 006 | 27 oz | 8.46 × 6.38 × 1.72 in | 32 g | 600 | Central kitchen, airline and foodservice meals |
| Model 012 | 27 oz | 8.50 × 6.46 × 1.85 in | 33 g | 600 | Deep frozen meals and institutional portions |
| Model 005 | 34 oz | 8.94 × 7.01 × 1.73 in | 32 g | 600 | Medium-large supermarket and frozen meals |
| Model HS18 | 47 oz | 8.50 × 6.46 × 1.97 in | 32 g | 360 | Large institutional, airline and high-volume meal packs |
Most current model headers publish a minimum order quantity of 50,000 pieces. Some detailed sections use different units or smaller quantities, so the final quotation should identify whether MOQ is measured in pieces, kilograms, cartons or a trial production quantity.
| Item | Typical HSQY Options |
|---|---|
| Material | CPET, crystallized polyethylene terephthalate |
| Structure | Three food cavities formed within one rectangular tray |
| Current Capacity Range | Approximately 22–47 oz |
| Current Shape | Rectangular |
| Current Color | Black; white, natural or custom colors subject to project review |
| Published Temperature Range | Selected models: approximately -40°C to +220°C |
| Heating Methods | Qualified microwave and conventional oven use |
| Storage | Chilled, refrigerated and frozen applications after validation |
| Sealing | Compatible with selected easy-peel, weld-seal, anti-fog and printed CPET lidding films |
| Published Case Packs | Approximately 360–720 trays depending on the model |
| Published MOQ | Commonly 50,000 pieces; confirm by model and customization |
| Customization | Dimensions, depth, total capacity, three-cavity ratio, color, logo, film and export packing |
Complete-meal layout: One package can hold a protein, starch and vegetable or another three-part menu.
Portion control: Each cavity supports repeatable food weights on manual or automatic filling lines.
Organized presentation: Food remains visually separated during chilled or frozen distribution.
Menu standardization: Useful for hospitals, schools, airlines and meal-delivery programs with defined nutrition targets.
Freezer-to-oven workflow: Qualified trays can support cold storage and direct reheating in microwaves or conventional ovens.
Sealable format: Compatible films support hygiene, transport, branding and retail presentation.
Wide portion range: Compact 22–25 oz formats and larger 27–47 oz meal packs are available.
Important limitation: Formed dividers organize food but are not automatically liquid-tight. Thin sauces, gravies and oils can move between cavities when the tray is tilted, overfilled, frozen, vibrated or reheated.
The total ounce capacity does not define the usable volume of each cavity. A technically suitable 3CP tray must match the individual food portions, not only the total meal weight.
Create a meal map: List the protein, starch and vegetable or side component.
Record target weights: Define minimum, target and maximum grams for every cavity.
Measure actual food volume: Meat, rice, mashed potatoes, vegetables and sauce have different densities.
Set the primary cavity: Allocate the largest cavity to the entrée or most important food component.
Size the two secondary cavities: Confirm that each side dish fits without compression or excessive headspace.
Set maximum fill levels: Keep food below the divider ridge and away from the sealing surface.
Test liquid movement: Tilt and vibrate filled trays to evaluate sauces and juices.
Validate reheating: Confirm that all three foods reach the required temperature without overcooking the smallest portion.
| Tray Class | Typical Capacity | Advantages | Selection Risks | Representative Models |
|---|---|---|---|---|
| Compact | 22–23 oz | Efficient portion control and carton density. | Limited headspace for bulky foods and sauces. | JC03, HS09 and 025 |
| Standard | 25–27 oz | Balanced footprint for retail, frozen and institutional meals. | Three foods can heat at different rates. | 015, 017, 008, 006 and 012 |
| Medium-Large | 34 oz | More generous meal size and deeper food portions. | Longer reheating time and reduced case count. | 005 |
| Large | 47 oz | Suitable for larger institutional, airline or catering portions. | Higher filled weight, stack load and heating complexity. | HS18 |
Protein, rice and vegetable meal sets
Frozen entrées with two side dishes
Chilled supermarket ready meals
Meal-prep and calorie-controlled products
Private-label freezer-to-oven meals
Hospital and healthcare meals
School and university meal programs
Senior-care meals
Meals on Wheels
Factory and corporate canteen meals
In-flight meals with entrée and two sides
Economy and premium catering meals
Railway meal service
Pre-packed transport catering food
Large-format airline meals using the HS18 model
Centralized meal production
Contract catering
Ready-to-reheat delivery meals
Community food programs
Large-volume institutional distribution
| Selection Factor | 1CP Tray | 2CP Tray | 3CP Tray |
|---|---|---|---|
| Food Layout | One uninterrupted cavity. | One main cavity and one side cavity. | One entrée and two side cavities. |
| Usable Volume | Usually maximizes usable volume. | One divider occupies part of the footprint. | Two divider systems reduce open cavity volume. |
| Filling Complexity | Simplest filling process. | Requires two controlled fills. | Requires three accurately controlled fills. |
| Heating Complexity | Usually easiest to optimize. | Two foods may heat differently. | Three foods create the greatest reheating challenge. |
| Food Separation | Foods can mix freely. | Separates two meal components. | Supports a complete three-part meal layout. |
| Best Fit | Pasta, curry, casserole and pies. | Entrée plus one side. | Protein, starch and vegetable meals. |
The three foods may have different mass, moisture content, density, starting temperature and shape. A small vegetable portion can overheat while a dense meat or rice portion remains below the target temperature.
Measure the center temperature in every cavity.
Evaluate the coldest and hottest food component.
Test the meal at the beginning and end of shelf life.
Control food placement and depth in each compartment.
Consider changing the compartment ratio or food shape.
Develop one clear microwave or oven instruction for the complete pack.
Check whether the lidding film must be pierced or vented over specific cavities.
Selected HSQY pages publish a temperature range of approximately -40°C to +220°C. This material range is not a universal use instruction and does not mean every tray, film and recipe can use the maximum temperature for an unlimited time.
Validate the exact tray model, weight and color.
Use the actual food recipe and portion distribution.
Include oil, sugar, salt, acid and alcohol content.
Test the longest chilled or frozen storage period.
Run the final microwave power or oven time-temperature profile.
Inspect the base, corners, divider intersections and flange.
Measure the food center temperature in all three cavities.
Confirm handling safety after reheating.
Repeat after compression, vibration and distribution tests.
Qualified trays can support freezer-to-oven workflows after thermal-shock validation. Test the actual frozen meal, lidding film, tray model and oven program.
Only when the exact film has been designed and validated for the heating instruction. Some films must be removed, pierced or vented before microwave or oven use.
No. CPET trays should not contact open flames, exposed broiler elements or uncontrolled radiant heat.
HSQY offers related sealing film for CPET trays. A 3CP design is more demanding than a single-cavity tray because the film may need to seal across two divider ridges as well as the outer flange.
| Sealing Requirement | Why It Matters | What to Test |
|---|---|---|
| Outer Flange Compatibility | Creates the main perimeter seal. | Seal initiation temperature, pressure and continuity. |
| First Divider Contact | Separates the primary cavity from one side cavity when the design supports internal sealing. | Divider height, flatness, cleanliness and tool pressure. |
| Second Divider Contact | Separates the remaining side cavity. | Channel leaks, pressure balance and film bridging. |
| Easy Peel | Allows controlled opening without tearing the entire film. | Average peel force, peak force and peel path across dividers. |
| Weld Seal | Provides stronger package closure. | Opening method, puncture resistance and seal integrity. |
| Oven or Microwave Film | Supports the approved reheating instruction. | Venting, shrinkage, odor, migration and seal stability. |
| Anti-Fog Film | Maintains chilled retail visibility. | Condensation after filling, cooling and storage. |
| Printed Film | Provides branding, nutrition, instructions and traceability. | Registration, code areas, ink and barcode readability. |
Confirm the tray model: Record dimensions, color, weight, flange and both divider heights.
Select the lidding film: Define easy peel or weld seal, barrier, anti-fog and heating requirements.
Inspect all sealing surfaces: Keep food, sauce, oil, rice and particles away from the flange and divider ridges.
Run a parameter matrix: Adjust sealing temperature, pressure and dwell time systematically.
Check pressure balance: Confirm the sealing tool contacts the perimeter and both dividers evenly.
Inspect channel leaks: Pay special attention to divider intersections and corners.
Measure seal strength: Test before and after chilling, freezing, transport and reheating.
Validate commercial speed: Confirm the settings on the final production line.
CPET material resists grease and moisture, but the package is only leak-resistant when the outer flange, both divider ridges, lidding film and sealing process work together.
Keep food and sauce below the effective divider height.
Protect the perimeter flange and divider ridges from contamination.
Inspect divider intersections for wrinkles and film bridges.
Test filled trays while tilted and after vibration.
Check corners after freezing and transportation.
Repeat package-integrity testing after reheating where required.
Some CPET trays can be integrated into modified atmosphere packaging, but standard CPET should not automatically be described as a high-gas-barrier material. A MAP-ready system requires a tray structure, lidding film and seal that meet the target OTR and gas-retention specification.
Three-compartment packs require additional attention because every cavity may contain different food volume and headspace. Define the food, gas mixture, residual oxygen, headspace, shelf life, storage temperature and integrity test for the complete package.
| Line Parameter | Why It Matters | Evaluation |
|---|---|---|
| Denesting | Trays must separate without double picks or jams. | Nesting clearance, static, carton compression and picker settings. |
| Three-Point Filling | Every cavity requires accurate food placement. | Nozzle position, target weight, splash control and sequence. |
| Divider Cleanliness | Food on either divider can create seal channels. | Filling accuracy, divider height and vision inspection. |
| Conveyor Stability | The tray must remain aligned through filling and sealing. | Base geometry, guide rails and center of gravity. |
| Tooling Fit | The outer flange and both dividers must match the sealing die. | Dimensions, corner radii, divider pressure and tolerance. |
| Film Tracking | Wrinkles can cross one or both dividers. | Tension, registration, eye marks and cutting accuracy. |
| Checkweighing | Three food portions increase total-weight variation. | Tray tare, individual fill control and final pack weight. |
| Cycle Speed | Seal quality must remain stable at commercial throughput. | Temperature recovery, dwell time and tool release. |
Empty-tray nesting and automatic denesting
Filled-tray top-load compression
Divider deformation under stack pressure
Stack stability after chilled or frozen storage
Outer-case compression and pallet loading
Road, airport and last-mile vibration
Food movement between all three cavities
Seal retention after mechanical stress
Tray rigidity after reheating
| Material | Heating and Storage | Main Advantage | Main Limitation |
|---|---|---|---|
| CPET | Qualified freezer, microwave and conventional oven use. | Dual-ovenable performance and rigid three-cavity structure. | Variable recycling access and more complex sealing. |
| PP | Commonly used for microwave and freezer applications. | Low weight and cost efficiency. | Conventional oven use is limited and grade-specific. |
| APET | Primarily for cold and ambient meals. | Clear product visibility. | Not designed for high-temperature oven reheating. |
| Aluminum | Strong conventional oven performance. | Fast heat transfer and rigid dividers. | Generally unsuitable for standard microwave use. |
| Ovenable Fiber | Depends on board and coating system. | Paper-based appearance and printability. | Barrier, oil resistance and sealing depend on coatings. |
Food-contact suitability must be confirmed for the exact CPET resin, pigment, recycled-content level, lidding film and intended heating conditions. A general statement that CPET is food grade does not replace product-specific documentation.
Provide the destination market, all three food types, maximum contact temperature, heating time and storage process. Request the applicable declaration, migration or test information, technical specification, change-control policy and batch traceability.
CPET is PET-based and may contain recycled PET where the formulation and food-contact rules permit it. Recycled-content claims should be documented for the exact tray and production batch.
Actual recyclability depends on whether local collection and sorting systems accept opaque or crystallized PET trays. Color, lidding film, labels, adhesives and food residue affect recovery. Avoid universal claims that every 3CP CPET tray is recycled in every market.
| Customization | Information Required | Engineering Consideration |
|---|---|---|
| Total Capacity | Complete meal weight, food volume and headspace. | Brimful volume is not usable meal capacity. |
| Three-Cavity Ratio | Target grams or milliliters for every food component. | Divider positions affect filling, heating and seal pressure. |
| Dimensions and Depth | Length, width, height, flange and equipment limits. | Must fit fillers, sealers, cartons, racks and ovens. |
| Divider Height | Food consistency, sauce level and separation target. | Higher dividers affect nesting and sealing-tool contact. |
| Custom Color | Color standard, gloss and annual demand. | Pigments can affect heat absorption and sorting. |
| Embossed Logo | Artwork, location, dimensions and depth. | Can influence strength, base contact and denesting. |
| Printed Lidding Film | Artwork, repeat, code area and heating instructions. | Requires ink, registration, migration and sealing validation. |
| Private-Label Packing | Case count, carton artwork, barcode and pallet plan. | Affects freight density and warehouse handling. |
CPET material identity and approved formulation
Tray length, width, depth and flange dimensions
Capacity of the entrée and both side cavities
Divider positions, heights and flatness
Individual tray weight and weight tolerance
Wall, base, corner and divider thickness distribution
Crystallization and heat resistance
Frozen impact and thermal-shock performance
Top-load compression and stack stability
Nesting and denesting consistency
Flange and divider sealing-surface condition
Seal strength and package integrity
Microwave and conventional oven performance
Case pack, carton strength and batch traceability
| Problem | Possible Causes | Recommended Checks |
|---|---|---|
| Food Crosses a Divider | Thin sauce, low divider, overfilling or tray tilt. | Reduce fill level or revise the cavity geometry. |
| One Cavity Remains Cold | Different food density, mass, moisture or placement. | Develop heating instructions using all three foods. |
| Small Side Overheats | Side portion is too small or has high water content. | Adjust portion shape, cavity ratio or heating profile. |
| Film Leaks at a Divider | Food contamination, divider deformation or uneven tool pressure. | Inspect both dividers and sealing-die contact. |
| Tray Warps During Heating | Excessive heat, hot oil or uneven food load. | Test the maximum final heating process. |
| Tray Cracks When Frozen | Cold impact, thin corners or mechanical stress. | Run frozen-drop and thermal-shock tests. |
| Trays Jam During Denesting | Static, carton compression or dimensional variation. | Review mold geometry, storage and line settings. |
Empty 3CP CPET trays are normally nested in sleeves and packed in corrugated export cartons. Published case packs range from approximately 360 to 720 pieces depending on tray footprint and depth.
Confirm pieces per sleeve and sleeves per carton.
Request carton dimensions, net weight and gross weight.
Define maximum nesting compression.
Confirm pallet dimensions and stack height.
Calculate container loading from final carton dimensions.
Check mixed-model and mixed-color loading rules.
Specify protection against heat, dust and crushing.
Provide barcode, batch label and shipping-mark requirements.
Confirm Incoterms and delivery schedule.
Verify dimensions: Measure the footprint, depth, flange and both dividers.
Measure every cavity: Confirm usable capacity for the entrée and two sides.
Fill the actual meal: Use the real foods, sauces and headspace.
Test food separation: Tilt and vibrate the filled package.
Run the production process: Include three-point filling, sealing and commercial line speed.
Condition the package: Test chilled or frozen storage for the intended period.
Reheat the meal: Measure temperatures in all three cavities.
Simulate distribution: Include compression, vibration and drop events.
Approve a golden sample: Link it to the drawing, weight, color and quality specification.
Ten current 3CP models covering approximately 22–47 oz
Compact, standard and large rectangular meal formats
Published dimensions, weights and case packs
Dual-ovenable grades for validated freezer-to-oven use
Matching CPET lidding-film support
Custom three-cavity ratio, depth, color and mold development
Sample support for filling, sealing, freezing, transport and reheating
Bulk export supply for ready-meal factories, airlines and institutional caterers
Related categories include 1 compartment CPET trays, 2 compartment CPET trays, airline CPET trays, CPET baking trays and CPET trays for meal packing.
To receive an accurate recommendation and quotation, provide:
Current tray drawing, model or physical sample
All three meal components and target weights
Required total capacity and cavity ratio
Food consistency, sauce level and headspace
Chilled or frozen storage conditions
Microwave or oven reheating instructions
Lidding-film type and required peel behavior
Tray-sealing machine, tooling and line speed
Color, logo, printing and carton requirements
Order quantity and annual forecast
Destination market and food-contact documentation
Shipping terms and requested delivery schedule
It is a crystallized PET food tray with three formed cavities for an entrée and two side portions.
The current 3CP category includes representative products from approximately 22 oz to 47 oz.
The current HSQY category displays ten rectangular three-compartment models.
The current products are primarily black. White, natural or custom colors can be evaluated for suitable projects.
Selected models are dual-ovenable under validated conditions. The tray, all three foods and heating process must be tested together.
Qualified trays can be microwave reheated. Test every cavity because the foods can heat at different rates.
Selected trays can support freezer-to-oven workflows after thermal-shock testing with the actual meal and oven program.
Selected HSQY pages publish approximately -40°C to +220°C, but approved time and temperature depend on the final application.
Not automatically. Thin sauces can cross dividers when the tray is tilted, overfilled, transported or heated.
Define the target weight and volume of the entrée and both sides separately, then test the actual meal.
The foods may differ in mass, moisture, density, starting temperature and shape.
Only when the exact film is designed and validated for that instruction. Some films must be removed, pierced or vented.
Yes. Use a CPET-compatible film and validate seal temperature, pressure, dwell time and peel force.
It can when the divider ridges and sealing tool are designed for contact. Height, flatness, cleanliness and pressure must be validated.
Leak resistance depends on the flange, both dividers, film, sealing process and handling. The tray alone cannot guarantee a leakproof package.
Some can, but the tray, film and seal must meet the required barrier and gas-retention specification.
Typical meals include protein with rice and vegetables, pasta with two sides, hospital meals, school meals and frozen complete meals.
A 2CP tray separates a main dish and one side, while a 3CP tray supports an entrée and two separately portioned sides.
CPET generally supports higher conventional oven temperatures, while PP is commonly selected for microwave and lower-temperature uses.
Yes. Provide target food weights, volumes, sauces, tray dimensions, equipment details and annual demand.
They may be recyclable where local systems accept opaque or crystallized PET trays. Actual acceptance varies by market.
Most model headers list 50,000 pieces, but final MOQ depends on the model, color, packing and customization.
Yes. Samples should be tested with the actual foods, film, sealing machine, storage cycle, transport and reheating process.
Provide the tray model, three food portions, cavity ratio, heating process, film, equipment, quantity, packing and compliance requirements.
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