Reusable Seafood Transport Containers vs EPS Foam Boxes: Which Fits Your Supply Chain?
- Quick Answer
- Key Takeaways
- What Is Being Compared?
- Reusable Seafood Transport Containers vs EPS Foam Boxes: Quick Comparison
- Which Supply-Chain Routes May Favor Reusable Containers?
- When May EPS Foam Boxes Be More Practical?
- How Should Product Protection Be Compared?
- Which Option Keeps Seafood Cold for Longer?
- How Do Hygiene and Cleaning Requirements Differ?
- How Do Handling and Vehicle Utilization Differ?
- How Should Buyers Compare Cost per Shipment?
- Are Reusable Containers Always More Sustainable?
- How Do Local Regulations and Waste Systems Affect the Choice?
- Could a Hybrid Packaging Strategy Work?
- How Should Buyers Run a Reusable-versus-EPS Pilot?
- Reusable vs EPS Buyer Decision Worksheet
- Common Reusable-versus-EPS Comparison Mistakes
- Frequently Asked Questions
- Conclusion
- Compare Packaging Options for Your Seafood Route
REUSABLE VS EPS SUPPLY-CHAIN GUIDE
Quick Answer
Comparing reusable seafood transport containers vs EPS foam boxes should begin with the structure of the supply chain rather than the packaging material alone.
Reusable seafood transport containers may suit controlled or closed-loop routes where containers can be recovered, inspected, cleaned, stored, and reused consistently.
EPS foam boxes may suit one-way, remote, irregular, or difficult-return routes where reverse logistics would add excessive cost or complexity.
Neither option is automatically better.
COMPARE THE COMPLETE SYSTEM
- Route structure
- Product protection
- Thermal validation
- Cleaning and hygiene
- Vehicle utilization
- Return logistics
- Waste handling
- Cost per completed shipment
A controlled pilot using the intended product, coolant, route, and handling process is more reliable than choosing from purchase price, material type, or a general performance claim alone.
Key Takeaways
Route structure is often the first decision factor.
Reusable systems require return logistics, cleaning, inspection, storage, and asset control.
EPS systems require a continuing supply of boxes and a defined recycling or disposal route.
Thermal performance must be compared under equivalent test conditions.
Product protection depends on the complete packaging system, not only the material.
Purchase price is not the same as cost per completed shipment.
Environmental comparison requires defined lifecycle boundaries and local waste data.
A representative pilot is more reliable than a general reusable-versus-EPS assumption.
For a broader overview of container selection, hygiene, handling, documentation, and supplier evaluation, see the reusable seafood transport container selection guide.
COMPARISON SCOPE
What Is Being Compared?
A useful comparison begins by defining both packaging systems.
What Is a Reusable Seafood Transport Container?
A reusable seafood transport container is a commercial transport unit intended to be recovered after delivery, inspected, cleaned, and returned to service.
A complete reusable system may include:
- Container body
- Lid or closure
- Drainage components
- Inner bags, trays, or dividers
- Ice or another coolant
- Identification or tracking
- Handling equipment
- Cleaning and drying procedures
- Clean storage
- Return transport
Models may differ in:
- Materials and insulation structure
- Internal and external dimensions
- Empty weight
- Lid and drainage design
- Forklift access
- Load and stacking conditions
- Cleaning limits
- Thermal performance
What Is an EPS Foam Box?
An EPS foam box is a lightweight expanded-polystyrene packaging unit commonly used with seafood, ice, liners, cartons, tape, straps, or other secondary packaging.
A complete EPS system may include:
- EPS box and lid
- Inner liner
- Absorbent material
- Tape or straps
- Outer carton
- Ice or another coolant
- Palletization materials
- Waste collection
- Recycling or disposal
EPS foam boxes can vary in:
- Density and wall thickness
- Shape
- Internal and external dimensions
- Closure method
- Secondary packaging
- Coolant arrangement
- Handling strength
Model-specific information should be confirmed before making performance, cost, or service-life claims. An EPS foam box should likewise not be treated as one standardized product with one fixed level of physical or thermal performance.
DECISION MATRIX
Reusable Seafood Transport Containers vs EPS Foam Boxes: Quick Comparison

| Decision Factor | Reusable Seafood Container | EPS Foam Box | Buyer Evidence Needed |
|---|---|---|---|
| Route structure | May suit controlled or closed-loop routes | May suit one-way or difficult-return routes | Route map and delivery network |
| Initial expense | Usually requires an asset purchase | Usually purchased for each shipment | Current quotations |
| Repeated use | Depends on recovery, condition, and cleaning | Normally treated as single-use or limited-use packaging | Operating records |
| Cleaning | Required before reuse | Normally not returned for cleaning and reuse | Cleaning SOP and cost |
| Return logistics | Usually required | Usually not required | Empty-return distance and cost |
| Asset tracking | Often required | Usually limited | Loss and return records |
| Product protection | Model, loading, and handling dependent | Box design and handling dependent | Representative route test |
| Thermal performance | Test-condition dependent | Test-condition dependent | Equivalent thermal test |
| Vehicle utilization | Affected by external dimensions and empty return | Affected by box dimensions and packing density | Vehicle layout |
| Waste | Depends on effective uses and end-of-life route | Depends on local recycling and disposal | Local waste data |
| Main cost basis | Cost per effective use | Cost per shipment | Actual operating data |
| Storage | Clean and returned units require space | New box inventory requires space | Facility layout |
| Handling | May require mechanical handling at higher loads | May divide shipments into lighter units | Loaded handling trial |
This comparison is a decision framework, not a universal ranking.
ROUTE FIT
Which Supply-Chain Routes May Favor Reusable Containers?
Reusable seafood transport containers may be practical when the operation has a predictable return loop.
Stable origins and destinations
Regular shipment frequency
Repeated customers
Defined return responsibility
Backhaul capacity
Washing and drying
Clean storage
Asset tracking
Mechanical handling

Closed-Loop Distribution
A closed-loop route may move seafood from a processor to a distribution center, restaurant group, retailer, market, or another company facility and then return empty containers to the origin or a cleaning location.
This may make reusable assets easier to control because:
- Delivery points are known.
- Return responsibilities can be assigned.
- Collection schedules can be planned.
- Washing capacity can be matched to fleet demand.
- Missing or damaged units can be recorded.
- Clean and dirty containers can be separated.
A closed route does not automatically prove that reusable packaging is less expensive. Buyers still need to calculate:
- Return distance
- Empty transport volume
- Cleaning cost
- Drying time
- Inspection labor
- Damage and loss
- Storage
- Fleet size
- Backup inventory
Regular Shipment Volume
Predictable shipment volume can make reusable fleet planning easier. Useful operating data include:
- Containers used per day
- Peak-season demand
- Average return time
- Cleaning turnaround
- Loss rate
- Repair rate
- Backup inventory requirement
Controlled Receiving Locations
Reusable systems may work more effectively when receiving sites:
- Understand return responsibilities
- Have temporary storage space
- Keep containers separate from waste
- Protect empty units from contamination
- Release containers on schedule
- Report missing or damaged units
These conditions may improve feasibility, but they do not by themselves prove lower cost, better thermal performance, or lower environmental impact.
ONE-WAY ROUTES
When May EPS Foam Boxes Be More Practical?
EPS foam boxes may remain practical where empty-container recovery is difficult or uneconomical.
- One-way distribution
- Remote delivery locations
- Export shipments
- Dispersed customer networks
- Low or irregular shipment frequency
- Limited cleaning infrastructure
- Limited storage at receiving sites
- Unclear ownership after delivery
- High reusable-container loss risk
- Temporary or emergency routes
- No practical return transport
One-Way or Dispersed Distribution
Recovering reusable containers from many independent customers may require:
- Additional collection vehicles
- Return scheduling
- Empty-container storage
- Deposits or tracking
- Return documentation
- Loss management
Remote Destinations
Buyers should confirm:
- Whether empty containers can return economically
- Whether receiving sites can store them
- Whether reverse transport is available
- Whether empty returns reduce other freight capacity
- Whether losses can be controlled
Low or Irregular Shipment Frequency
Occasional shipments may not use reusable assets frequently enough to justify:
- Fleet purchase
- Storage
- Washing infrastructure
- Inspection
- Tracking
- Return administration
The decision should be based on actual shipment frequency and effective uses rather than theoretical container life.
PRODUCT PROTECTION
How Should Product Protection Be Compared?
Product protection should be evaluated with the intended seafood, packaging, coolant, handling method, and route.
Impact
Compression
Puncture
Leakage
Lid movement
Product shifting
Forklift contact
Stacking
Vehicle vibration
Wet handling
Reusable-System Considerations
- Container design
- Product fit
- Lid closure
- Drainage
- Internal clearances
- Loaded weight
- Stacking conditions
- Container condition
- Handling equipment
- Packing method
EPS-System Considerations
- Box dimensions
- Wall thickness
- Density
- Lid fit
- Outer carton
- Palletization
- Strapping
- Seafood shape
- Ice quantity
- Handling practices
Representative Protection Test
A fair comparison should use the same or equivalent:
- Seafood product
- Product weight
- Packaging
- Coolant conditions
- Stacking arrangement
- Vehicle
- Handling equipment
- Route or controlled route simulation
Record leakage, product movement, packaging damage, lid condition, container damage, compression, handling incidents, and product acceptance at delivery.
The result should be linked to the tested configuration rather than generalized to every reusable container or EPS foam box.
THERMAL COMPARISON
Which Option Keeps Seafood Cold for Longer?
There is no universal answer.
Thermal performance depends on the complete packaging system and test conditions.
Starting seafood temperature
Product condition
Payload
Coolant type
Coolant quantity
Packing pattern
Headspace
Closure method
Ambient temperature
Route duration
Vehicle refrigeration
Sensor positions
A cooling-duration claim cannot be compared fairly when the payload, coolant, ambient conditions, route, or sensor positions are different.
Equivalent Thermal Comparison
- Define the seafood product and target load.
- Use comparable starting temperatures.
- Use an equivalent coolant strategy.
- Define the packing pattern.
- Set the same ambient or route conditions.
- Use the same sensor type and logging interval.
- Place sensors in equivalent positions.
- Define acceptance criteria before testing.
- Record openings and handling events.
- Repeat the test where variability is significant.
The objective is to determine whether each packaging system maintains the required product condition for the intended route with a practical load and operating process.
HYGIENE CONTROL
How Do Hygiene and Cleaning Requirements Differ?
Neither reusable packaging nor new EPS packaging is automatically hygienic. Hygiene depends on storage, handling, cleaning, contamination control, and documented procedures.
Reusable-System Hygiene Controls
- Inspection before cleaning
- Removal of seafood residue
- Washing
- Sanitizing where required
- Rinsing
- Drainage
- Drying
- Post-cleaning inspection
- Clean storage
- Release for reuse
The operation should define how it manages cracks, deep scratches, damaged lids, drain components, odor, residue, contaminated loads, allergen risks, pest exposure, chemical compatibility, and units that cannot be cleaned effectively.
EPS-System Hygiene Controls
- Storage before use
- Dust and pest exposure
- Damage before packing
- Inner-liner condition
- Seafood contact
- Ice quality
- Leakage
- Handling contamination
- Disposal after use
Cleaning Capacity as an Operating Constraint
Reusable fleet planning should include:
- Containers cleaned per hour
- Shift capacity
- Drying time
- Clean-storage capacity
- Peak demand
- Dirty-container storage
- Turnaround time
- Rejected-container rate
A reusable fleet cannot operate effectively if clean containers are unavailable when required.
HANDLING AND VEHICLES
How Do Handling and Vehicle Utilization Differ?
Packaging choice affects outbound and return logistics.
Empty weight
Loaded weight
Package dimensions
Manual lifting
Forklift compatibility
Palletization
Stacking
Vehicle footprint
Load restraint
Empty-return volume
Reusable-System Handling
A reusable container may consolidate more seafood into one unit. This may reduce package count but increase:
- Loaded weight
- Mechanical-handling requirements
- Floor loading
- Forklift dependence
- Unloading constraints
EPS-System Handling
An EPS system may divide the shipment into lighter units but increase:
- Package count
- Manual handling
- Loading steps
- Palletization materials
- Individual sealing operations
- Box-damage exposure
Vehicle Utilization
Buyers should compare seafood product per vehicle, coolant, packaging weight and volume, unused vehicle space, package count, stacking, load restraint, refrigeration airflow, and empty-return space.
For a detailed capacity and vehicle-fit method, see how to choose seafood transport container capacity.
Empty Returns
- Empty containers per return vehicle
- Stacking or nesting behavior
- Backhaul availability
- Receiving-site storage
- Return time
- Cleaning turnaround
- Capacity lost to empty returns
Ignoring empty-return capacity can make a reusable cost model incomplete.
COST MODEL
How Should Buyers Compare Cost per Shipment?
The purchase price of one reusable container should not be compared directly with the purchase price of one EPS foam box. The two systems have different cost structures.

Reusable Cost-per-Trip Formula
Reusable Cost per Trip = (Reusable Container Acquisition and Initial Delivery Cost ÷ Effective Uses) + Cleaning Cost per Trip + Return Logistics Cost per Trip + Average Inspection and Repair Cost per Trip + Average Loss and Damage Cost per Trip + Storage and Handling Cost per Trip
Additional costs may include:
- Tracking
- Labels
- Deposits
- Administration
- Fleet financing
- Backup inventory
- Retirement
- End-of-life handling
EPS Cost-per-Shipment Formula
EPS Cost per Shipment = EPS Box Purchase Cost + Inbound Delivery and Storage Cost + Inner Packaging Cost + Assembly and Sealing Cost + Disposal or Recycling Cost + Average Damage and Leakage Cost
Additional costs may include:
- Outer cartons
- Tape
- Straps
- Pallets
- Absorbent material
- Waste collection
- Emergency packaging inventory
What Are Effective Uses?
Effective uses are the number of successfully completed shipment cycles achieved before a reusable container is lost, damaged, contaminated, retired, or otherwise removed from service.
Effective uses may be lower than theoretical design life because of:
- Loss
- Unreturned assets
- Damage
- Inspection rejection
- Contamination
- Route changes
- Customer-network changes
- Model changes
- Retirement
A general service-life statement should not automatically be used as the buyer’s effective-use figure.
Break-Even Uses
Break-Even Uses = Additional Reusable Acquisition Cost ÷ (EPS Variable Cost per Shipment − Reusable Variable Cost per Trip)
This formula only produces a meaningful positive result when the EPS variable cost per shipment is higher than the reusable variable cost per trip.
The calculation should use actual figures for:
- Reusable container purchase
- EPS boxes
- Cleaning
- Return transport
- Labor
- Storage
- Loss
- Damage
- Disposal
- Product loss
Cost per Successfully Completed Shipment
The comparison should include whether:
- Seafood meets receiving criteria
- Packaging completes the route
- Leakage or damage occurs
- Repacking is required
- Seafood is rejected
- Reusable containers return and re-enter service
- Disposal or recycling is completed
- Related labor and administration are recorded
Cost per successfully completed shipment is usually more useful than packaging purchase price alone.
LIFECYCLE VIEW
Are Reusable Containers Always More Sustainable?
No.
A reusable system may reduce repeated packaging consumption when containers complete enough effective cycles.
Reusable-System Factors
- Container manufacturing
- Material quantity
- Effective uses
- Return distance
- Vehicle utilization
- Washing water
- Cleaning energy and chemicals
- Loss and damage
- Repair
- End-of-life treatment
EPS-System Factors
- Box manufacturing
- Box quantity
- Secondary packaging
- Delivery of empty boxes
- Waste collection
- Local recycling availability
- Contamination
- Disposal route
Define the Lifecycle Boundary
A comparison should define whether it includes:
- Material production
- Packaging manufacturing
- Packaging delivery
- Seafood transport
- Coolant
- Return transport
- Washing and drying
- Repair
- Loss
- Waste collection
- Recycling
- Disposal
- End of life
Local Waste Systems Matter
Buyers should verify:
- Whether clean EPS is accepted locally
- Whether seafood contamination affects recycling
- Whether compacting is required
- Collection distance
- Recycling fees
- Disposal fees
- Customer requirements
- Local restrictions
Practical conclusion: Reuse may reduce repeated packaging consumption when containers complete enough effective cycles, but return transport, cleaning, loss, damage, and end-of-life treatment also affect the result.
MARKET REQUIREMENTS
How Do Local Regulations and Waste Systems Affect the Choice?
Packaging requirements may vary by destination market.
Food-contact requirements
Packaging-material restrictions
EPS restrictions
Packaging taxes
Waste classification
Disposal fees
Recycling requirements
Import rules
Customer packaging policies
Retailer requirements
Labeling
Documentation
Market-specific rules should be verified before purchasing or shipment.
HYBRID STRATEGY
Could a Hybrid Packaging Strategy Work?
A buyer does not always need one packaging system for every route.
Reusable containers on controlled domestic loops
EPS foam boxes on remote or one-way routes
Reusable containers between company facilities
Single-use packaging for exceptional destinations
Different systems by seafood product or customer
Different systems by season or return availability
This approach can improve route fit but may also create:
- More packaging specifications
- More training
- More inventory categories
- More supplier management
- More complex procedures
The buyer should confirm whether the added flexibility justifies the added complexity.
PILOT EVALUATION
How Should Buyers Run a Reusable-versus-EPS Pilot?
A controlled pilot can replace assumptions with route-specific evidence.

01
Define the Route
Record origin, destination, distance, duration, transfer points, refrigerated and non-refrigerated stages, loading-dock exposure, delivery schedule, and return route.
02
Define Acceptance Criteria
Criteria may include product temperature, product condition, leakage, packaging condition, seafood damage, delivery time, handling safety, cleaning result, and customer acceptance.
03
Select Representative Configurations
Use the exact reusable model and EPS configuration under consideration and record dimensions, empty weight, packaging components, closure, coolant system, and secondary packaging.
04
Use Comparable Seafood Loads
Use the same or closely matched product, condition, starting temperature, weight, packaging format, coolant strategy, and headspace target. Document unavoidable differences.
05
Test Product Protection
Record loading difficulty, product movement, leakage, lid condition, packaging damage, stacking, unloading, and seafood acceptance.
06
Record Temperature
Use equivalent sensor types, sensor positions, logging intervals, ambient conditions, route events, opening events, and acceptance criteria.
07
Record Operating Work
For reusable containers, record return, inspection, washing, sanitizing where required, drying, storage, repair, and loss. For EPS, record box preparation, liners, sealing, palletization, storage, recycling, or disposal.
08
Record Vehicle and Facility Impact
Measure packages per vehicle, seafood per vehicle, packaging weight and volume, loading and unloading time, storage space, empty-return space, and handling equipment.
09
Calculate Cost per Successfully Completed Shipment
Include packaging, coolant, labor, cleaning, return transport, damage, product loss, disposal, storage, tracking, repacking, and administration.
Repeat the pilot when the product, route, season, coolant, vehicle, or operating process changes.
BUYER WORKSHEET
Reusable vs EPS Buyer Decision Worksheet
Use this worksheet to compare complete supply-chain systems rather than isolated packaging prices.
| Input | Buyer Data |
|---|---|
| Seafood product | |
| Product condition | |
| Load per shipment | |
| Shipment frequency | |
| Origin and destination | |
| Route duration | |
| Route type: closed-loop, one-way, or mixed | |
| Number of delivery points | |
| Return distance | |
| Return responsibility | |
| Empty-return method | |
| Reusable-container loss rate | |
| Reusable-container damage rate | |
| Washing location | |
| Washing capacity | |
| Washing cost | |
| Cleaning turnaround time | |
| Clean-storage capacity | |
| Dirty-container storage capacity | |
| EPS box dimensions | |
| EPS box cost | |
| EPS delivery and storage cost | |
| Inner packaging cost | |
| EPS disposal or recycling cost | |
| Reusable container delivered cost | |
| Expected effective uses | |
| Inspection and repair cost | |
| Product-damage rate | |
| Leakage rate | |
| Coolant method | |
| Vehicle dimensions | |
| Handling equipment | |
| Required documentation | |
| Applicable packaging rules | |
| Customer packaging requirements | |
| Pilot result |
A completed worksheet allows buyers to compare supply-chain systems rather than isolated packaging prices.
COMMON ERRORS
Common Reusable-versus-EPS Comparison Mistakes
Comparing Purchase Prices Only
Compare cost per successfully completed shipment rather than one reusable container against one EPS foam box.
Assuming Reusable Always Costs Less
Return transport, cleaning, storage, loss, damage, and fleet size may make reusable systems more expensive on some routes.
Assuming EPS Always Costs Less
Repeated box purchases, secondary packaging, storage, disposal, leakage, and product damage can increase EPS-system cost.
Comparing Thermal Claims from Different Conditions
Temperature results are not directly comparable when product load, coolant, ambient conditions, route, or sensors differ.
Ignoring Empty Returns
Reusable assets require a return plan, and vehicle space and labor should be included.
Ignoring Cleaning Capacity
A reusable fleet cannot operate efficiently when cleaning turnaround is slower than shipment demand.
Using Theoretical Life as Effective Uses
Actual effective uses may be reduced by loss, damage, contamination, retirement, and route changes.
Ignoring EPS Disposal Cost
Waste collection, recycling, customer charges, and disposal can affect total cost.
Ignoring Product Damage and Leakage
Packaging cost should include the financial effect of damaged or rejected seafood.
Comparing Nominal Capacity Instead of Usable Capacity
Packaging dimensions, coolant, headspace, product shape, and loaded weight affect actual shipment capacity.
Making Environmental Claims Without Lifecycle Boundaries
Material weight or theoretical reuse alone is not a complete environmental comparison.
Applying One Route Result to Every Supply Chain
A result from one product, customer, season, or route should not automatically be applied elsewhere.
FREQUENTLY ASKED QUESTIONS
Frequently Asked Questions
Are reusable seafood transport containers better than EPS foam boxes?
Not in every supply chain. Reusable containers may be more practical on controlled routes with reliable return logistics, cleaning, storage, and asset tracking. EPS foam boxes may be more practical for one-way, remote, irregular, or difficult-return shipments. The decision should be based on route conditions, product protection, thermal validation, handling, waste, and cost per completed shipment.
When are reusable seafood containers more practical than EPS boxes?
They may be more practical when shipment frequency is regular, origins and destinations are stable, empty containers can be returned, cleaning capacity is available, losses can be controlled, and receiving sites can store and release reusable assets.
When may EPS foam boxes still be the better option?
EPS may remain practical for one-way distribution, remote destinations, export routes, dispersed customers, occasional shipments, limited cleaning infrastructure, or routes where empty-container recovery would be difficult or expensive.
Which option keeps seafood cold for longer?
There is no universal answer. Thermal performance depends on the container configuration, seafood load, starting temperature, coolant, packing pattern, headspace, ambient conditions, route, lid openings, and test method. Buyers should compare both systems under equivalent conditions.
How should buyers compare reusable-container and EPS costs?
Compare total cost per successfully completed shipment. For reusable containers, include acquisition, effective uses, cleaning, return transport, inspection, repair, loss, storage, and handling. For EPS, include box purchase, delivery, storage, liners, sealing, disposal, damage, and leakage.
Do reusable seafood containers require cleaning after every use?
Reusable containers should follow a defined inspection and cleaning process before returning to service. The exact procedure depends on the product, contamination risk, applicable requirements, container design, cleaning method, and buyer hygiene plan.
Are reusable seafood containers always more sustainable than EPS?
No. Environmental performance depends on manufacturing, effective uses, return distance, washing, energy, chemicals, loss, damage, recycling, disposal, and end-of-life treatment. A route-specific lifecycle comparison is more reliable than a general material claim.
What data should be collected during a reusable-versus-EPS pilot?
Collect product temperature, seafood condition, packaging damage, leakage, load capacity, vehicle utilization, handling time, coolant use, reusable return and cleaning data, asset loss, EPS waste handling, product loss, and total cost per completed shipment.
FINAL DECISION
Conclusion
Reusable seafood transport containers and EPS foam boxes solve different supply-chain problems.
Reusable systems may suit predictable routes where containers can be returned, cleaned, inspected, tracked, stored, and reused consistently.
EPS systems may suit one-way, remote, irregular, or difficult-return routes where reverse logistics would add excessive cost or complexity.
The decision should not be based only on:
- Material type
- Purchase price
- Nominal capacity
- General thermal claims
- Theoretical service life
- General sustainability assumptions
Buyers should compare route structure, usable capacity, product protection, thermal performance, cleaning, handling, vehicle utilization, return logistics, asset loss, waste handling, regulations, and cost per successfully completed shipment.
The objective is not to select one material for every route, but to match each packaging system to the routes where it can be controlled, verified, and operated economically.
NEXT STEP
Compare Packaging Options for Your Seafood Route
Share your seafood product, shipment frequency, route structure, current EPS packaging, load per shipment, coolant method, return distance, washing resources, vehicle limits, expected quantity, and destination.
Review the insulated seafood transport container range listed on the Weihong website, or contact Weihong to discuss the product information and evaluation requirements relevant to your project.
Discuss Your Packaging Requirements
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The six-runner plastic pallet, open or closed deck, is a solid and durable packaging solution designed for general and medium to heavy-duty cargo stacking, storage and transport. It’s made of virgin HDPE or PP, featuring in robust structure, a reinforced configuration with steel cores for the rack and shelf, and a steady loading capacity.
The three-runner single-sided plastic pallet is a solid and durable packaging solution designed for general and medium to heavy-duty cargo storage, transport and automated storage use. It’s made of virgin HDPE or PP, featuring in robust structure, reinforced configuration with steel cores for rack and shelf, and a steady loading capacity.
The reversible plastic pallet, open deck or closed deck, is a solid and durable packaging solution designed for general and medium to heavy-duty cargo stacking, storage and transport. It’s made of virgin HDPE or PP, featuring a robust structure, a reinforced configuration with steel cores for the rack and shelf, and a steady loading capacity for both sides.
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