Fruit Juice (1L carton)

Food & Beverage
Medium Confidence

Carbon Cost Index Score

42 kgCO₂e / per unit

Per kg

40 kgCO₂e / kg

Methodology v1.0 · Last reviewed 2026-04-08

Scope Breakdown

Scope kgCO₂e % of Total Distribution
Scope 1 0.84 2%
Scope 2 8.4 20%
Scope 3 32.76 78%
Total 42 100%

Emission Hotspots

Emission Hotspot Scope Est. % of Total
Agricultural production (fertilizer, N2O emissions, machinery) S3 50%
Distribution and transportation S3 18%
Packaging material production (paperboard, plastic, aluminum) S2 15%
Processing (pasteurization, evaporation, storage) S2 12%
End-of-life packaging waste management S3 5%

Manufacturing Geography

Region
Brazil, Spain, Florida
Grid Intensity
0.074 kgCO2e/kWh (Brazil, IEA 2023)

Material Composition Assumptions

The typical one-liter carton of fruit juice consists of multiple layers providing barrier properties and structural integrity. The paperboard forms the primary structure at approximately 750 grams, representing the largest material component. A polyethylene plastic layer provides moisture barrier properties at roughly 130 grams. An aluminum foil layer adds oxygen barrier characteristics at approximately 120 grams. The juice content itself derives from concentrated or fresh oranges processed with water, though this organic content contributes minimally to packaging-related emissions.

The multilayer carton design optimizes product protection while maintaining relatively low environmental impact compared to alternative packaging formats. Each material layer serves specific functional requirements for product preservation and shelf stability during distribution and storage.

Manufacturing Geography

Major orange juice production concentrates in Brazil, Spain, and Florida due to favorable citatic growing conditions and established processing infrastructure. Brazil dominates global orange juice production with significant renewable energy integration in processing facilities, resulting in lower grid-related emissions. The Brazilian electrical grid operates at approximately 0.074 kgCO2e/kWh due to substantial hydroelectric capacity.

Spanish and Florida facilities typically operate on grids with higher carbon intensity, affecting processing-stage emissions. However, shorter transportation distances to major consumer markets can offset some grid-related disadvantages. Processing facilities in these regions benefit from proximity to both agricultural production and consumer distribution networks.

Regional Variation

Manufacturing RegionGrid IntensityEstimated CCI ScoreAdjustment vs Default
Brazil0.074 kgCO2e/kWh38-9.5%
Spain0.233 kgCO2e/kWh44+4.8%
Florida, USA0.431 kgCO2e/kWh47+11.9%
Italy0.276 kgCO2e/kWh45+7.1%
California, USA0.237 kgCO2e/kWh44+4.8%

Provenance Override Guidance

  1. Agricultural emissions data including fertilizer application rates, field equipment fuel consumption, and measured nitrous oxide emissions from orange grove operations.

  2. Processing facility energy consumption records with specific electricity and fuel usage for pasteurization, concentration, and cold storage operations.

  3. Packaging material specifications detailing the exact composition ratios of paperboard, polyethylene, and aluminum layers with supplier carbon intensity data.

  4. Transportation logistics documentation including shipping distances, mode selection, and load factors from grove to processing facility to retail distribution.

  5. Renewable energy procurement agreements or on-site generation capacity that reduces grid electricity dependence during juice processing operations.

Methodology Notes

Related Concepts

Sources

  1. Oregon DEQ 2020 Food Product Environmental Footprint Literature Summary: Citrus — Comprehensive analysis of citrus production environmental impacts including water and carbon footprints across different production systems.
  2. Spreen, Dwivedi & Goodrich-Schneider 2012 Estimating the Carbon Footprint of Florida Orange Juice — Lifecycle assessment of Florida orange juice production identifying agricultural and processing emission hotspots.
  3. Beccali et al. 2009 Resource consumption and environmental impacts of the agrofood sector: LCA of Italian citrus-based products — Analysis of Italian citrus processing showing the environmental impact distribution across production stages.
  4. Munasinghe et al. 2008 Carbon & Water Footprint of Oranges and Strawberries Literature Review — Literature synthesis examining carbon emissions from orange cultivation and processing across multiple regions.
  5. SAI Platform 2009 Carbon and Water Footprint of Oranges and Strawberries — Industry assessment of sustainable agriculture practices and their impact on carbon footprints in citrus production.
  6. Ethical Consumer 2020 Environmentally friendly drinks packaging — Comparative study of packaging materials showing carton packaging has lower environmental impact than plastic bottles.
  7. Springer 2018 Climate-Smart Orange Juice — Research on sustainable orange juice production methods and climate adaptation strategies in citrus agriculture.
  8. IPI 2024 Environmental impact of aseptic carton bricks — Lifecycle assessment of carton packaging materials showing emissions from paperboard and barrier layer production.
  9. MDPI 2024 Unpacking Consumer Preferences: Sustainability of Packaging Material for Orange Juice — Analysis of different packaging options demonstrating carton packaging advantages over alternative materials.
  10. Scientific Reports 2024 The carbon footprint of fruits: A systematic review from a life cycle perspective — Systematic review identifying key emission drivers in fruit production and processing across global supply chains.
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