Approach for assessing environmental handprints

The need to reveal positive environmental consequences of offerings has risen as urgent climate actions are needed from companies. The environmental handprint approach was developed to indicate the positive environmental impacts of a solution offered to a client. The environmental handprint approach...

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Main Authors: Lakanen Laura, Grönman Kaisa, Kasurinen Heli, Vatanen Saija, Pajula Tiina, Behm Katri, Soukka Risto
Format: Article
Language:English
Published: EDP Sciences 2022-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2022/16/e3sconf_lcm2022_12001.pdf
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author Lakanen Laura
Grönman Kaisa
Kasurinen Heli
Vatanen Saija
Pajula Tiina
Behm Katri
Soukka Risto
author_facet Lakanen Laura
Grönman Kaisa
Kasurinen Heli
Vatanen Saija
Pajula Tiina
Behm Katri
Soukka Risto
author_sort Lakanen Laura
collection DOAJ
description The need to reveal positive environmental consequences of offerings has risen as urgent climate actions are needed from companies. The environmental handprint approach was developed to indicate the positive environmental impacts of a solution offered to a client. The environmental handprint approach builds upon the previously published carbon handprint approach. The approach follows the guidelines of ISO standards on Life Cycle Assessment (LCA) but complements them with instructions for calculating positive environmental impacts. The environmental handprint framework allows consideration of several different environmental impacts including climate impacts, air quality, and utilization of nutrients, water and resources, and it can be applied to products, services, organisations and projects. The framework consists of four main stages: 1. Handprint requirements, 2. Additional LCA requirements, 3. Quantification, 4. Communication. The handprint approach provides an important addition to life cycle studies. Handprints can be used by organizations to communicate the environmental benefits of their products, services, and technologies. They also serve as an aid to identify improvement potential throughout the life cycle of an offering, thus supporting product development and decision making. Case studies supported the methodology development. A case related to water handprint in water treatment in the mining industry is presented in this paper.
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spelling doaj.art-fde61da13209456db258cc8a85efbe332022-12-22T03:35:37ZengEDP SciencesE3S Web of Conferences2267-12422022-01-013491200110.1051/e3sconf/202234912001e3sconf_lcm2022_12001Approach for assessing environmental handprintsLakanen Laura0Grönman Kaisa1Kasurinen Heli2Vatanen Saija3Pajula Tiina4Behm Katri5Soukka Risto6Lappeenranta-Lahti University of Technology LUTLappeenranta-Lahti University of Technology LUTLappeenranta-Lahti University of Technology LUTVTT Technical Research Centre of Finland LtdVTT Technical Research Centre of Finland LtdVTT Technical Research Centre of Finland LtdLappeenranta-Lahti University of Technology LUTThe need to reveal positive environmental consequences of offerings has risen as urgent climate actions are needed from companies. The environmental handprint approach was developed to indicate the positive environmental impacts of a solution offered to a client. The environmental handprint approach builds upon the previously published carbon handprint approach. The approach follows the guidelines of ISO standards on Life Cycle Assessment (LCA) but complements them with instructions for calculating positive environmental impacts. The environmental handprint framework allows consideration of several different environmental impacts including climate impacts, air quality, and utilization of nutrients, water and resources, and it can be applied to products, services, organisations and projects. The framework consists of four main stages: 1. Handprint requirements, 2. Additional LCA requirements, 3. Quantification, 4. Communication. The handprint approach provides an important addition to life cycle studies. Handprints can be used by organizations to communicate the environmental benefits of their products, services, and technologies. They also serve as an aid to identify improvement potential throughout the life cycle of an offering, thus supporting product development and decision making. Case studies supported the methodology development. A case related to water handprint in water treatment in the mining industry is presented in this paper.https://www.e3s-conferences.org/articles/e3sconf/pdf/2022/16/e3sconf_lcm2022_12001.pdf
spellingShingle Lakanen Laura
Grönman Kaisa
Kasurinen Heli
Vatanen Saija
Pajula Tiina
Behm Katri
Soukka Risto
Approach for assessing environmental handprints
E3S Web of Conferences
title Approach for assessing environmental handprints
title_full Approach for assessing environmental handprints
title_fullStr Approach for assessing environmental handprints
title_full_unstemmed Approach for assessing environmental handprints
title_short Approach for assessing environmental handprints
title_sort approach for assessing environmental handprints
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2022/16/e3sconf_lcm2022_12001.pdf
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AT pajulatiina approachforassessingenvironmentalhandprints
AT behmkatri approachforassessingenvironmentalhandprints
AT soukkaristo approachforassessingenvironmentalhandprints