Pallets / Field guide

Pallets and loading for materials shipments

A usable pallet load must fit the footprint, stay within the permitted height and gross mass, and remain stable during handling. Start with measured packed dimensions, then count complete layers and include every bag, pallet and restraint in the tare. A geometric fit is a planning result that still needs physical validation.

By MatQuo · Published and reviewed

Measure the packed unit

Use filled bag or closed box dimensions rather than an empty packaging drawing. Record orientation, bulging, overhang restrictions and the height of the pallet itself. Agree whether the height limit describes product only or the complete unit, because the two definitions can produce different layer counts.

Move through the decisions in order

Choose the footprint, check the specific pallet design, and validate a bag pattern. Then enter the measured values in the pallet calculator. Use the lowest applicable load limit from the pallet, packaging, handling and transport arrangements.

Comparison at a glance

ConstraintInput to confirmWhat can fail
FootprintPacked length and widthOverhang or unusable gaps
HeightOverall limit and pallet heightToo many layers
MassGross limit and tareProduct-only calculation
HandlingStack stability and securingA mathematically valid but unstable load

Worked example

Fictional box load: eight boxes per layer and six layers gives 48 boxes. At 8 kg per box, product mass is 384 kg; with a 25 kg pallet it is 409 kg gross. If a customer instead allows seven layers, the result becomes 56 boxes, 448 kg product and 473 kg gross. The height assumption explains the difference.

MatQuo illustrated field guide / P01

Pallet footprints compared

Plan-view dimensions; orientation does not change area. Heights and ratings are separate.

Detailed poster: scroll horizontally on a small screen, or open the full-size figure. The readable text equivalent is below.

Pallet footprints comparedPlan-view dimensions; orientation does not change area. Heights and ratings are separate. EPAL Euro: 800 × 1,200 mm; Area: 0.96 m² • height: 144 mm. Industrial footprint: 1,200 × 1,000 mm; Area: 1.20 m² • specify design. 1,219.2 × 1,016 mm footprint (48 × 40 in): 1,219.2 × 1,016 mm; Exact inch conversion, not 1.2 m. Square footprint: 1,100 × 1,100 mm; Area: 1.21 m² • specify design. CP and Euro footprint overlay: Long side horizontal; common centre and scale.; CP2 and EUR: 800 × 1,200 mm. CP1 / CP6: 1,000 × 1,200 mm after rotation.; CP3 / CP8 / CP9: 1,140 × 1,140 mm. CP4 / CP7: 1,100 × 1,300 mm after rotation. CP5: 760 × 1,140 mm.; Shared footprints do not imply identical construction.MATERIALS TRADE / P01Pallet footprints comparedPlan-view dimensions; orientation does not change area. Heights and ratings are separate.MatQuoOne footprint is not one pallet specification1,200 mm800 mmEPAL Euro0.96 m² · 144 mm high5 deck boards · 9 blocksIndustrial1,200 × 1,000 mm1.20 m²North American1,219.2 × 1,016 mmExact equivalent: 48 × 40inSquare1,100 × 1,100 mm1.21 m²CP + EUR overlay · long side horizontalCP2 / EURCP1 / CP6CP3 / CP8 / CP9CP4 / CP7CP5Paired CP types sharean outer rectangleafter rotation. Theirconstruction candiffer. Overlay: commoncentre and scale.Sources: EPAL · ISOSource: MatQuo · matquo.com · Checked 9 October 2026 · Full source links and notes accompany this figure.

EPAL • Euro pallet · ISO • Public pallet dimensions overview · EPAL • CP1 technical sheet · EPAL • CP2 technical sheet · EPAL • CP3 technical sheet · EPAL • CP4 technical sheet · EPAL • CP5 technical sheet · EPAL • CP6 technical sheet · EPAL • CP7 technical sheet · EPAL • CP8 technical sheet · EPAL • CP9 technical sheet · Checked

Text equivalent and notes
EPAL Euro
800 × 1,200 mm. Area: 0.96 m² • height: 144 mm
Industrial footprint
1,200 × 1,000 mm. Area: 1.20 m² • specify design
1,219.2 × 1,016 mm footprint (48 × 40 in)
1,219.2 × 1,016 mm. Exact inch conversion, not 1.2 m
Square footprint
1,100 × 1,100 mm. Area: 1.21 m² • specify design
CP and Euro footprint overlay
Long side horizontal; common centre and scale.. CP2 and EUR: 800 × 1,200 mm. CP1 / CP6: 1,000 × 1,200 mm after rotation.. CP3 / CP8 / CP9: 1,140 × 1,140 mm. CP4 / CP7: 1,100 × 1,300 mm after rotation. CP5: 760 × 1,140 mm.. Shared footprints do not imply identical construction.
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MatQuo illustrated field guide / P03

Bags: count, mass and stability

Fictional measured bags, not a universal 25 kg bag size. Validate the physical stack.

Detailed poster: scroll horizontally on a small screen, or open the full-size figure. The readable text equivalent is below.

Bags: count, mass and stabilityFictional measured bags, not a universal 25 kg bag size. Validate the physical stack. Measured rectangle: 600 × 500 mm on 1,200 × 1,000; 2 × 2 = 4 bags per layer; Aligned layers shown schematically.. Alternate layers: Rotate only if the filled bags fit.; Overlaps do not create free space.; Interlock needs a physical trial.. Ten layers: 40 × 25 kg = 1,000 kg net; 40 × 0.15 + 25 = 31 kg tare; 1,031 kg gross; 1,150 mm high. 950 kg gross limit: Full layers: 9 × 4 = 36 bags; 900 kg net + 30.4 kg tare; 930.4 kg gross; 1,050 mm highMATERIALS TRADE / P03Bags: count, mass and stabilityFictional measured bags, not a universal 25 kg bag size. Validate the physical stack.MatQuo01 Measure the filled bag600 mmFictional measured envelope: 600 × 500 × 100 mm. Each bagholds 25 kg net; empty bag tare is 0.15 kg.02 Build a real layer1,200 mm1,000 mm2 × 2 = 4 bags / layerRotate only if the filled bag fits. Overlapdoes not create space. Validate interlockingand stability with a physical stack.03 Apply the lower limit10 layers40 bags1,000 kg net + 31 kg tare1,031 kg gross1,150 mm high25 kg pallet tare included950 kg gross cap36 bags900 kg net + 30.4 kg tare930.4 kg gross1,050 mm high9 complete layersSources: EPALSource: MatQuo · matquo.com · Checked 9 October 2026 · Full source links and notes accompany this figure.

EPAL • Euro pallet · EPAL • Chemical pallets · Checked

Text equivalent and notes
Measured rectangle
600 × 500 mm on 1,200 × 1,000. 2 × 2 = 4 bags per layer. Aligned layers shown schematically.
Alternate layers
Rotate only if the filled bags fit.. Overlaps do not create free space.. Interlock needs a physical trial.
Ten layers
40 × 25 kg = 1,000 kg net. 40 × 0.15 + 25 = 31 kg tare. 1,031 kg gross; 1,150 mm high
950 kg gross limit
Full layers: 9 × 4 = 36 bags. 900 kg net + 30.4 kg tare. 930.4 kg gross; 1,050 mm high
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Common mistakes

  • Using an empty bag width instead of its filled footprint.
  • Counting product mass while omitting pallet and packaging tare.
  • Assuming maximum geometric count is a tested shipping pattern.

Questions and answers

Why do two pallet calculators give different counts?

Compare their assumptions before comparing the totals. They may use different height definitions, allow different rotations or optimise mixed patterns rather than uniform rows. Enter the same dimensions and limits, then check the diagram. A higher theoretical count is not automatically a more usable or stable transport arrangement.

Should the pallet height be included?

Include it when the customer or carrier specifies a maximum overall loaded height. Subtract the actual pallet height before calculating complete product layers. If the input instead means product stacking height, state that clearly. Mixing those definitions can add a layer that the receiving door or storage position cannot accept.

Does a pallet rating establish the truck payload?

No. The pallet’s load capability and the vehicle’s allowable cargo mass are separate checks. Packaging compression, handling conditions and route-specific vehicle limits can impose additional constraints. Keep each confirmed limit in the load record and use the governing one without replacing missing information with a generic industry allowance.

Sources and review scope

Checked . Worked examples are fictional unless explicitly identified as sourced dimensions.

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