Literature DB >> 18767634

The importance of carbon footprint estimation boundaries.

H Scott Matthews1, Chris T Hendrickson, Christopher L Weber.   

Abstract

Because of increasing concern about global climate change and carbon emissions as a causal factor, many companies and organizations are pursuing "carbon footprint" projects to estimate their own contributions to global climate change. Protocol definitions from carbon registries help organizations analyze their footprints. The scope of these protocols varies but generally suggests estimating only direct emissions and emissions from purchased energy, with less focus on supply chain emissions. In contrast approaches based on comprehensive environmental life-cycle assessment methods are available to track total emissions across the entire supply chain, and experience suggests that following narrowly defined estimation protocols will generally lead to large underestimates of carbon emissions for providing products and services. Direct emissions from an industry are, on average, only 14% of the total supply chain carbon emissions (often called Tier 1 emissions), and direct emissions plus industry energy inputs are, on average, only 26% of the total supply chain emissions (often called Tier 1 and 2 emissions). Without a full knowledge of their footprints, firms will be unable to pursue the most cost-effective carbon mitigation strategies. We suggest that firms use the screening-level analysis described here to set the bounds of their footprinting strategy to ensure that they do not ignore large sources of environmental effects across their supply chains. Such information can help firms pursue carbon and environmental emission mitigation projects not only within their own plants but also across their supply chain.

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Year:  2008        PMID: 18767634     DOI: 10.1021/es703112w

Source DB:  PubMed          Journal:  Environ Sci Technol        ISSN: 0013-936X            Impact factor:   9.028


  9 in total

1.  Setting the stage for debating the roles of risk assessment and life-cycle assessment of engineered nanomaterials.

Authors:  Jeroen B Guinée; Reinout Heijungs; Martina G Vijver; Willie J G M Peijnenburg
Journal:  Nat Nanotechnol       Date:  2017-08-04       Impact factor: 39.213

Review 2.  The energy burden and environmental impact of health services.

Authors:  Lawrence H Brown; Petra G Buettner; Deon V Canyon
Journal:  Am J Public Health       Date:  2012-10-18       Impact factor: 9.308

3.  Healthcare expenditure and carbon footprint in the USA: evidence from hidden cointegration approach.

Authors:  Murat Gündüz
Journal:  Eur J Health Econ       Date:  2020-03-14

4.  Carbon footprint: current methods of estimation.

Authors:  Divya Pandey; Madhoolika Agrawal; Jai Shanker Pandey
Journal:  Environ Monit Assess       Date:  2010-09-18       Impact factor: 2.513

5.  Greenhouse gas inventory of a typical high-end industrial park in China.

Authors:  Bin Chen; Guoxuan He; Jing Qi; Meirong Su; Shiyi Zhou; Meiming Jiang
Journal:  ScientificWorldJournal       Date:  2013-02-03

6.  Comparing Institution Nitrogen Footprints: Metrics for Assessing and Tracking Environmental Impact.

Authors:  Elizabeth A Castner; Allison M Leach; Jana E Compton; James N Galloway; Jennifer Andrews
Journal:  Sustainability (New Rochelle)       Date:  2017-04-01

7.  Study of the Ecological Footprint and Carbon Footprint in a Reverse Osmosis Sea Water Desalination Plant.

Authors:  Federico Leon; Alejandro Ramos-Martin; Sebastian Ovidio Perez-Baez
Journal:  Membranes (Basel)       Date:  2021-05-21

8.  Greenhouse gas emission accounting and management of low-carbon community.

Authors:  Dan Song; Meirong Su; Jin Yang; Bin Chen
Journal:  ScientificWorldJournal       Date:  2012-12-02

9.  Carbon Footprint of a Port Infrastructure from a Life Cycle Approach.

Authors:  Rodrigo Saravia de Los Reyes; Gonzalo Fernández-Sánchez; María Dolores Esteban; Raúl Rubén Rodríguez
Journal:  Int J Environ Res Public Health       Date:  2020-10-12       Impact factor: 3.390

  9 in total

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