A questionnaire for calculating ecological footprint

Similar documents
Life Cycle Assessment of Swiss Chocolate

Life Cycle Assessment of Swiss Electricity Mixes

Sustainable Manufacturing Seminar. Designing to Sustain the Economy, Environment and Society. Sustainable Product Standards (case-study)

LIFE CYCLE ASSESSMENT ON COTTON AND VISCOSE FIBRES FOR TEXTILE PRODUCTION

General Structure of Life Cycle Impact Assessment Lecture. Mark Huijbregts Department of Environmental science Radboud University

LCA of recycled concrete: Environmentally superior to virgin concrete?

Environmental Product Declaration

ECOLOGICAL FOOTPRINT

Vergleich von Energieaufwendungen und Umweltbelastungen von PV-Anlagen mit konventionellen Kraftwerken

How Humans Impact the Environment. Jonathan M. Links, PhD Johns Hopkins University

Evaluation of Biomass Combustion based Energy Systems by Cumulative Energy Demand and Energy Yield Coefficient

Legrand's environmental commitments

System analysis of overall efficiencies of different routes for bioenergy. Content

Itella s principles of environmental accounting

Energy Efficient Cities Initiative Practitioners Roundtable Discussion

Water Footprint Project

A joint initiative of the ETH domain and Swiss Federal Offices

Distributed Energy Systems

The CarbonNeutral Company calculation methodology for the carbon calculator

Purchasing Category Analysis Tool Providers

GE Healthcare Life Sciences. An environmental life cycle assessment comparison of single-use and conventional bioprocessing technology

The BOMBARDIER* REGINA*

Establishing ecologically sustainable forest biomass supply chains: A case study in the boreal forest of Canada

A"Local"Authority"Biomass"Supply"Chain;" experiences"in"north"lanarkshire"and" Stockport" November"2013"

Roche Basel/Kaiseraugst

Revealing the costs of air pollution from industrial facilities in Europe a summary for policymakers

White Paper Life Cycle Assessment and Product Carbon Footprint

Houses heated entirely by solar energy all year round

Victoria City 2010 Community Energy and Emissions Inventory Monitoring and reporting on progress towards greenhouse gas emissions reduction targets

Implementation of Life Cycle Impact Assessment Methods

A case study on multi-impact life cycle assessment of coffee alternatives

of bioenergy and actions

Building Energy Labels: The Swiss MINERGIE Label

Legrand's environmental commitments

Rainwater Harvesting

Synthesis on the local researches

Natural Capital at Risk

Sustainable Plastics with Reduced Carbon Footprint & Reduced Waste

The new Audi TT Coupé. Life Cycle Assessment

Ecological, Carbon and Water Footprint

Vauban target & achieved values An ecological energy concept

Life Cycle Assessment applied to urban settlements

CE 110 Introduction to Environmental Engineering (3)

APPENDIX 1: 8-DIGIT SIC CODES COMPRISING THE GREEN ECONOMY

Environmental Product Declaration (EPD) for Concrete

AP ENVIRONMENTAL SCIENCE 2012 SCORING GUIDELINES

Life Cycle Assessment (LCA) of solar cooling systems

Life cycle analysis of bread production a comparison of eight different options

Including Resource Security of Supply in LCA: a proposal

How To Understand The Environmental Impacts Of A Plastic Bottle

Costs of air pollution from European industrial facilities an updated assessment

Environmental protection and products

Solid softwood panelling for interior use Product

Communicating Your Commitment: Your Guide to Clean Energy Messaging

WORKSHOP: The roles of wood in green building and green building effects on the forest sector of in the UNECE region.


ENERGY CONSUMPTION AND ENVIRONMENTAL EFFECTS OF PASSENGER TRANSPORT MODES - A LIFE CYCLE STUDY ON PASSENGER TRANSPORT MODES

Living & Working Managing Natural Resources and Waste

Product Environmental Assessment Activities in Taiwan

Evaluation of water stress of selected cases from water re-use or saving scenario s tested in SP5

Green Affordable Housing Development Case Eco-Viikki, Finland

Maurizio Fauri Matteo Manica Antonio Visentin. 26 th Winter Universiade Trentino 2013 with "Zero Emissions"

LCA of biofuels: developments and constraints

Transport Services. Data v2.0 (2007)

Scope 1 describes direct greenhouse gas emissions from sources that are owned by or under the direct control of the reporting entity;

Gri-food Sector Data Base, Size and Expectations

Solar and heat recovery hybrid system

A clean energy solution from cradle to grave

SHELL HAUSWÄRME-STUDIE. Nachhaltige Wärmeerzeugung für Wohngebäude Fakten, Trends und Perspektiven

Uses of Energy. Residential- homes Commercial - buildings Industry and Manufacturing Transportation- cars, trucks, planes, etc.

Policy GRN The City will adopt a Go Green Initiative to implement strategies to reduce greenhouse gas emissions within the City s borders.

The new Audi R8. Life Cycle Assessment

Techno-economic and ecological evaluation of a wood biorefinery

Environmental Science 101 Energy. Web-Based Course. Lecture Outline: Terms You Should Know: Learning Objectives: Reading Assignment:

Birmingham City University / Students Union Aspects and Impacts Register. Waste. Impacts description

I. Survey Methodology

CONTRACT. LCA of food transports and tomato production. A comparison of different food transport scenarios, including production of tomatoes 3P00017

Summary technical description of the SUNSTORE 4 plant in Marstal

An environmental comparison of paper and plastic labels. Chris Edwards & Gary Parker Intertek Expert Services

Original Research Life Cycle Assessment of Municipal Solid Waste Management Comparison of Results Using Different LCA Models

Good for your image. Good for your budget.

Review Timber as a Building Material - An environmental comparison against synthetic building materials

Methods to assess global environmental impacts from Swedish consumption. Synthesis report of methods, studies performed and future development

STOCKHOLM CITY PLANNING ADMINISTRATION. Hammarby Sjöstad. Malin Olsson, Head of Section, Stockholm City Planning Adm.

Hybrid system. Energy-efficient and environmentally friendly

Life Cycle Assessment of Sewer System: Comparison of Pipe Materials. Abstract

CASE: the Island of Nauvo, Finland

THE SUSTAINABLE WASTE MANAGEMENT IN THE CITY OF RIO DE JANEIRO

Carbon footprint and GHG Inventories : two approaches for a better understanding of climate issues

Protan SE 1.2 Roof Membrane Product

Green Cities 29. okt PlanEnergi

Papapostolou 1, E. Kondili 1, J.K. Kaldellis 2

Energy Consumption Increases Slightly in Renewables Continue to Grow / Advantages Due to Weather, Economic Trend, and Immigration

NOTE: 08/2014 revision corrects issues related allocation & slag and fly ash within the Int. EPD PCR evaluation.

Life Cycle Assessment and Forest Products: A White Paper

Purchasing Category Analysis Tool Providers

The advantages of generic LCA tools for agriculture: examples SALCAcrop and SALCAfarm

International Standard for Determining Greenhouse Gas Emissions for Cities

GREEN FACTS. Marina Bay Sands

Green Public Procurement and Implementation in Hungary Orsolya Diófási-Kovács

Transcription:

A questionnaire for calculating ecological footprint René Itten, Niels Jungbluth ESU-services Ltd., Uster, Switzerland E S U 49th LCA Discussion Symposium Zürich, 18. September 2012

Introduction Update of existing footprint calculator on www.footprint.ch More options and broader range of results Page 2

Ecological Footprint (1) CH: 2.8 planets GLO: 1.5 planets Target: 1 planet Source: Global Footprint Network www.footprintnetwork.org Page Ø The 3 ecological footprint is continously increasing during the last decades

Ecological Footprint (2) Global hectares (gha)per person 1.8 global hectares per person = 1 planet (2006) Page Ø Switzerland 4 is on rank 27 in the ecological footprint ranking

Sets of questions (1) Based on catalogue of existing calculator Refined with additional key questions and further options leading to a broader range of results Option to enter specific values for the energy consumption (detailed version) Page 5

28 Questions covering the most important consumption sectors 6 Questions on nutrition 6 Questions on private mobility 13 Questions on housing and energy Set of questions (2) Page 6

Data base Jungbluth et al. (2012) Environmental impacts of private consumption and reduction potentials http:///projects/lifestyle/ http:///projects/ioa/ Global Footprint Network (www.footprintnetwork.com) ecoinvent Centre (2010). ecoinvent data v2.2, Duebendorf, Switzerland, Swiss Centre for LCI LC-inventories (2012). Corrections, updates and extensions of ecoinvent data v2.2, ESU-services Ltd. Page 7

Indicator For communication: ecological footprint (Global Footprint Network) For calculation: Swiss ecological scarcity 2006 Using the Swiss average budget for conversion (Jungbluth et al. 2011) 20 Mio eco-points = 2.8 planets Page 8

Average of each consumption category scaled according to LCA data Consumption sectors are calculated top down (Input-Output-Analysis) Deviation from the average calculated based on LCA results Hybrid approach between Input- Output-Analysis (average) and LCA (deviation from average) Calculations air, IPCC GWP 100a air, ozone depletion, UNEP 2000 air, NMVOC air, acidification air, human health air, heavy metals water, eutrophication water, heavy metals water, radioactive water, toxic hydrocarbons water, endocrine disruptors soil, heavy metals soil, plant protection products resources, energy resources, land resources, mineral resources, water waste 0 20 40 60 Light fuel oil Natural gas Solar collectors, MFH Solar collectors, SFH Heat pump, groundwater Heatpump, water Heatpump, air Wood Average Page 9 eco- points (UBP) per MJ of heat

Energy consumption! Energy consumption in Swiss households 2005 (BFE 2006)! Shares of the different energy sources! Unit! MJ/person and year! %! Electricity" 8'506 " 23.9%" Light fuel oil" 17'403 " 48.8%" Natural gas" 6'407 " 18.0%" Wood logs" 54 " 0.2%" District heat" 2'484 " 7.0%" Solar collectors" 784 " 2.2%" Total per inhabitant! 35'638! 100.0%" Inhabitants" 7'459'128 " " Page Ø Swiss 10 average based on Swiss energy statistics

! Mobility consumption Swiss average (Mikrozensus, BFS/ARE 2007)! Share of travelled distance! Unit! pkm/person and year! %! Passenger plane" 2'456" 15.2%" Coach" 506" 3.1%" Train" 2'590" 16.0%" Passenger car" 9'582" 59.3%" Bus" 49" 0.3%" Tram" 718" 4.4%" Trolley bus" 0" 0.0%" Motorcycle / Scooter" 246" 1.5%" Total! 16'147" 100.0%" Page Ø Swiss 11 average based on Swiss mobility statistics

Deviation from average based on LCA results Environmental impact relative to Swiss average What kind of heating system are you using? 22.1 Electric heating" 310% 22.2 Light fuel oil heating 121% 22.3 Natural gas heating 87% 22.4 Wood pellets 91% 22.5 Wood chips 93% 22.6 Wood logs 112% 22.7 Solar collectors 62% 22.8 District heat 61% 22.9 Heat pump 91% 22.10 Heat pump, certified electricity 34% 22.11 Swiss average 100% Page Ø Average 12 result is scaled according to LCA results

Average Swiss footprint Public demand Nutrition Consumption Housing and energy Mobility Total 3.0 2.5 2.0 Planets 1.5 1.0 0.5 - Swiss average Normal calculator Detailed calculator Target value World average Page Ø The 13 average Swiss footprint is 2.8 planets

Increase in travelled distance by plane Public demand Nutrition Consumption Housing and energy Mobility Total 3.5 3.0 2.5 Planets 2.0 1.5 1.0 0.5 - Swiss average Normal calculator Detailed calculator Target value World average Page Ø Additional 14 40 flight hours per year cause an increase of 0.4 planets

Maximum footprint Public demand Nutrition Consumption Housing and energy Mobility Total 14.0 12.0 10.0 Planets 8.0 6.0 4.0 2.0 - Swiss average Normal calculator Detailed calculator Target value World average Page Ø It 15 is easy to increase the footprint (flying, dwelling area)

Minimum footprint (1) Public demand Nutrition Consumption Housing and energy Mobility Total 3.0 2.5 2.0 Planets 1.5 1.0 0.5 - Swiss average Normal calculator Detailed calculator Target value World average Page Ø The 16 minimal footprint corresponds to about one planet

Minimum footprint (2) No motorised mobility consumption (passenger car, plane, train, bus, motorcycle) Vegan nutrition Less than 25 m 2 net dwelling area per person Less than 300 CHF per month for other consumption (furniture, cloths, gifts, restaurants, holidays, etc) Page 17

3.0 My footprint Public demand Nutrition Consumption Housing and energy Mobility Total 2.5 2.0 Planets 1.5 1.0 0.5 - Swiss average Normal calculator Detailed calculator Target value Page Ø Feasible 18 to reduce the footprint below the Swiss average World average

Limitations of the calculator Public demand is not affected Uncertainty due to conversion of eco-points into planets Linear scaling of the impacts assumed Improvements in the production and supply chains are not modelled Page 19

Conclusions All consumption areas covered Easy to reduce the footprint below the Swiss average Huge potential to reduce the global footprint Some options to reduce the ecological footprint are not covered by the calculator (more efficient production, reuse and sharing, reduced public demand) An ecological footprint of one planet is an ambitious goal Page 20

Thank you very much for your attention! René Itten /projects/lifestyle/ www.footprint.ch ESU-services GmbH, Uster, Schweiz Acknowledgements: The work presented here was made possible thanks to WWF Switzerland. Page 21

Additional Slides Page 22

Page 23

Dwelling area In average 2.5 rooms (~50 m2 ) per person with 2 persons per household Page 24