Circularity of packaging

Rules for calculating the packaging score

Food packaging can have many negative impacts on the environment, especially when it is not recycled. These impacts are linked to several factors: extraction of non-renewable fossil or mineral raw materials, water consumption, persistence in the environment, decomposition into micro and nanoparticles, contamination of soils, fresh water and oceans, etc.

The packaging score aims to promote the circularity of packaging and, failing that, the use of renewable and biodegradable resources. The objective is to promote packaging which benefits from a second life, and which can be reused for the same uses (in "closed loop"). This limits the extraction of virgin raw material to manufacture new single-use packaging.

The Packaging score consists of 3 parts:

  • an Upstream score evaluating the origin of the raw materials used

  • a Downstream score evaluating the different end-of-life scenarios

  • a ratio according to the relative weight of each element

Upstream Score

For the upstream part, we consider:

  • The possible use of recycled raw material

  • The renewable nature or not of the raw materials

  • Sustainable or unsustainable management of resources

🇧🇪Upstream Scorechevron-right

Downstream Score

For the downstream part, we consider all possible end-of-life options:

  • Recyclable

  • Biodegradable

  • Incinerated

  • Landfilled

🇧🇪Down stream Score - Belgiumchevron-right

Ratios by format

Packaging is generally made up of several components. For example, a ready meal is made up of 3 distinct elements: a tray, a lid and a case. In order to characterise them, a list of formats is available, with a ratio representing the relative weight of each format.

These ratios are detailed on the following page:

🇧🇪Ratios by format - Belgiumchevron-right

Score calculation

The following formula is used to obtain the packaging score, taking into account the upstream and downstream scores of a number n of packaging elements:

score=100−∑i=1n(100−ai∗bi‾)∗riscore = 100-\sum_{i=1}^{n}(100-\overline{a_i*b_i})*r_i

nn the number of elements in the package aia_i the upstream score bib_i the downstream score rir_i the ratio associated with the format

circle-info

When the product is distributed in bulk (without packaging), the score is 100.

The packaging score is integrated into the overall product score in the form of a malus of up to 15 points. The packaging malus is calculated as follows:

malus=x10−10malus = \frac{x}{10}-10

xx is the packaging score. malusmalus is between [0,−15]\mathopen{[}0,-15\mathclose{]}

Special case

In order to ensure that the Eco-score is consistent with the objective of 100% recycled plastic by 2025 (article L. 541-1 4°bis of the French Environment Codearrow-up-right), products packaged in non-recyclable plastic are not eligible for the Eco-score (A) . These products can at best be rated (B).

This concerns products with one or more packaging elements whose ratio associated with the format is greater than or equal to 1, in non-recyclable plastic (downstream score = 0).

Example: a yoghurt sold in a polystyrene pot (a commonly used non-recyclable plastic) cannot be rated A, regardless of whether the milk comes from France or the product has an organic label. Such a product would therefore be given an Eco-score of B.

Sources

Specificities in Belgium

Annual report of the Belgian IVCIE interregional commission. https://www.ivcie.be/wp-content/uploads/2018/11/RapportdActivites2020.pdfarrow-up-right

Interregional cooperation agreement on the management of packaging waste.https://www.ivcie.be/wp-content/uploads/2018/10/2008036325_F-1.pdfarrow-up-right

Fostplus approval for the period 2018-2023 for the selective collection, sorting and recycling of household packaging waste in Belgium. https://www.ivcie.be/wp-content/uploads/2018/10/Agrément-Fost-Plus-2018-FR.pdfarrow-up-right

Mapping of materials according to the FostPlus classification of materials, based on the Green Dot tariff. https://www.fostplus.be/fr/media/298/downloadarrow-up-right

CITEO. (2018). 2018 key figures for household packaging recycling. https://bo.citeo.com/sites/default/files/2019-07/20190612-FicheA5_Chiffres_cles_2018_2_validee.pdfarrow-up-right

French sources

ADEME. (2017, mai). Bilan National du Recyclage 2005-2014. https://www.ademe.fr/arrow-up-right. https://www.ademe.fr/sites/default/files/assets/documents/bilan-national-recyclage-bnr_2005-2014_201705_rapport-final.pdfarrow-up-right

CITEO. (2018b, avril). Recyclabilité des emballages en plastique - Innovations et pistes de travail issues des projets de R&D 2015-2018. https://bo.citeo.com/sites/default/files/inline-files/20180329_Citeo_Projets_Recyclabilit%C3%A9_Plastique.PDFarrow-up-right

FEDEREC, ADEME. (2017, avril). Évaluation environnementale du recyclage en France selon la méthodologie de l’analyse de cycle de vie. https://presse.ademe.fr/wp-content/uploads/2017/05/FEDEREC_ACV-du-Recyclage-en-France-VF.pdfarrow-up-right

COTREP, ELIPSO, CITEO, VALORPLAST. (2017, décembre). Recyclabilité des emballages en plastique - Eco-concevoir pour mieux recycler. https://bo.citeo.com/sites/default/files/inside_wysiwyg_files/Citeo_Guide COTREP_WEB.pdfarrow-up-right

ELLEN MACARTHUR FOUNDATION. (2016, janvier). The New Plastics Economy : Rethinking the future of plastics - download the infographics. https://www.ellenmacarthurfoundation.org/arrow-up-right. https://www.ellenmacarthurfoundation.org/news/the-new-plastics-economy-rethinking-the-future-of-plastics-infographicsarrow-up-right

ECO CO2. (2013, février). Recyclage des capsules à vis en aluminium : bonnes performances pour l’Europe, mais la France en retard. https://www.ecoco2.com/arrow-up-right. https://www.ecoco2.com/blog/recyclage-des-capsules-a-vis-en-aluminium-bonnes-performances-pour-leurope-mais-la-france-est-en-retard/arrow-up-right

FRANCE NATURE ENVIRONNEMENT. (2018, décembre). Le recyclage et les débouchés des plastiques. https://ged.fne.asso.fr/silverpeas/LinkFile/Key/22dedc1a-0940-41a9-b9e3-77a778972c59/FNE_fiche_rep_plastiques.pdfarrow-up-right

Matthieu Glachant, CERNA, Ecole des Mines de Paris. (2006, octobre). La prévention des déchets d’emballages en France. https://www.cerna.minesparis.psl.eu/Donnees/data05/554-Rapport-UFC-final-v2-.pdfarrow-up-right

Projet Métal : recycler plus de petits emballages métalliques. (2020, 15 juin). CITEO. https://www.citeo.com/le-mag/projet-metal-recycler-plus-de-petits-emballages-metalliques/arrow-up-right

SPHERE, KAKEKA. (2019, juillet). Les bioplastiques biodégradables et compostables - Rapport d’information. https://www.emballagesmagazine.com/mediatheque/2/9/0/000035092.pdfarrow-up-right

TETRA PAK. (2019, novembre). Tetra Pak packaging made with fully traceable plant-based polymers. https://www.tetrapak.com/arrow-up-right. https://www.tetrapak.com/about/newsarchive/tetra-pak-first-company-fully-traceable-plant-based-polymers-packagingarrow-up-right

ECO EMBALLAGES, ADEME. (2007, décembre). Synthèse d’études environnementales sur des plastiques de différentes origines (renouvelables et fossiles). http://www.ecoemballages.fr/sites/default/files/documents/synthese-etudes-environnementales-plastiques.pdfarrow-up-right

Tout ce que vous rêvez de savoir sur le recyclage. (2018, 5 septembre). CITEO. https://www.citeo.com/le-mag/470/arrow-up-right

LOI n° 2020-105 du 10 février 2020 relative à la lutte contre le gaspillage et à l'économie circulaire. https://www.legifrance.gouv.fr/jorf/id/JORFTEXT000041553759?r=iGc9foqKm2arrow-up-right COTREP. (2020, octobre). Comportement des gourdes PE et PP au tri et au recyclage https://www.cotrep.fr/content/uploads/sites/3/2020/11/cotrep-ag63-gourde-pepp.pdfarrow-up-right

Last updated