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Presswood Pallets – Emission Reduction Explanation

2026-08-13
Presswood Pallets – Emission Reduction Explanation

Explanation of Emission Reduction by Replacing with Presswood Pallets

🌱 Press Wood Pallets 📦 Nestable Pallets 🔄 Pressed Wood Pallets ♻️ Presswood Pallets

I. Purpose of this Explanation

This explanation is intended to demonstrate to customers the carbon emission reduction benefits achievable by replacing traditional plastic or solid wood pallets with low-carbon molded pallets — specifically, advanced presswood pallets (also referred to as pressed wood pallets or nestable pallets) — under identical usage and load-bearing conditions, across the full life cycle (from cradle to grave). It is designed to support customers in their product carbon footprint accounting, Scope 3 emissions management, ESG disclosure, and export compliance data usage.

II. Accounting Boundary and Methodology

Accounting ItemDescriptionDensen
Life Cycle BoundaryCradle to Grave
Functional Unit1 pallet
Unit of Measurementkg CO₂e
Methodological BasisISO 14067
Underlying AssumptionIdentical load-bearing capacity and usage scenario for pallets

III. Product Data for Low-Carbon Molded Pallets (Presswood Pallets)

Data ItemParameter
Life Cycle BoundaryCradle to Grave
Carbon Footprint per Unit1.8859 kg CO₂e / piece
Data AttributionTraceable

These pressed wood pallets are engineered for high-density uniformity, enabling consistent performance across multiple turnaround cycles.

IV. Carbon Footprint of Comparative Pallets (Benchmarked under Equivalent Load-Bearing Conditions)

The comparison below is based on industrial-grade pallets with a dynamic load capacity of 2 tons and a static load capacity of 8 tons. Nestable pallets of the presswood type offer additional logistics efficiency due to their stackable design, yet the carbon footprint comparison focuses on identical functional performance.

Pallet TypeCarbon Footprint per Unit (kg CO₂e / piece)Remarks
Plywood Pallet42Influenced by adhesives and hot-pressing energy consumption
Low-Carbon Presswood Pallet (Molded)1.8859Traceable; representative of press wood pallets with MDI binder
Note: The above represents an industry reference range for replacement emission reduction calculations. Specific figures may be adjusted based on actual customer pallet measurement data.

V. Emission Reduction Effects of Pallet Replacement

Replacement TargetCarbon Footprint of Original PalletCarbon Footprint of Low-Carbon PalletEmission Reduction per UnitReduction Rate
Plywood Pallet → Presswood Pallet421.885940.114195.5%

This significant reduction is achieved through the unique manufacturing process of pressed wood pallets, which utilizes high-temperature molding with minimal adhesive content and low-energy curing.

VI. Annual Emission Reduction Example

Replacement TargetAnnual Usage (pieces)Annual Emission Reduction (tons CO₂e / year)
Plywood Pallet → Presswood / Nestable Pallets500,00020,057
Note: Based on a market CO₂ trading price of RMB 102/ton, this directly generates an economic value of over RMB 2 million. Additionally, the nestable design of nestable pallets reduces return-shipping carbon footprint, further amplifying annual savings.

VII. Guidelines for Compliant Use of Emission Reduction Data

Scope of UseDescription
Does Not Constitute Carbon Credits or Allowances Cannot be directly used for carbon tax offsets or compliance surrender.
Permitted Compliant Uses • Product carbon footprint accounting
• Scope 3 upstream emissions data
• Export product carbon footprint and CBAM data support
• ESG reporting and supply chain emission reduction disclosure
• Internal corporate carbon management and compliance optimization analysis

For presswood pallets, the traceable LCA data also supports EU Deforestation Regulation (EUDR) due diligence when properly documented.

VIII. Concluding Statement

Under the premise of meeting equivalent load-bearing and performance requirements, low-carbon molded pallets — specifically presswood pallets (including pressed wood pallets and nestable pallets) — can reduce carbon emissions in the packaging phase by over 95% across the full life cycle. They serve as a direct replacement solution for customers aiming to lower supply chain emissions and optimize the carbon footprint of exported products. Their nestable geometry further enhances logistics efficiency, reducing transport-related emissions and storage footprint — an additional benefit beyond the carbon data presented above.


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