Balancing Act

A TRIPLE BOTTOM LINE ANALYSIS
OF THE AUSTRALIAN ECONOMY

A technical report by Barney Foran (CSIRO Sustainable Ecosystems), Manfred Lenzen and Christopher Dey (Integrated Sustainability Analysis, the University of Sydney).

>> Balancing Act Executive Summary (pdf)

>> Clarification on Forestry Accounts (pdf)

>> Balancing Act FAQ

Accessing the report

The Balancing Act report is divided into four volumes available for download as separate Adobe Acrobat pdf files. You will need Adobe Acrobat Reader to view the files.

Each volume is a large file and may be slow to download across low bandwidth Internet connections.

If you have problems downloading or accessing the files, please request the report on a CD Rom. Email Integrated Sustainability Analysis (arne.geschke@sydney.edu.au) at the University of Sydney.

Download Balancing Act:

Download Balancing Act:

pdf Volume 1 (pdf 5 Mb) 112 Pages

pdf Volume 2 (pdf 21 Mb) 209 Pages

pdf Volume 3 (pdf 28 Mb) 277 Pages

pdf Volume 4 (pdf 24 Mb) 209 Pages

 

About Balancing Act

Sustainability is a balancing act

The (triple) bottom line

Corporations, non-governmental organisations, governments at all levels, and the general public are all engaging with the concept of sustainability. The environmental movement brought the tensions between economic development and environmental quality to public attention over 30 years ago. Recently, the developed world has struggled to expand the original concept of sustainable development – meeting environmental concerns whilst maintaining economic development – to a more holistic concept where environmental, social and economic considerations are identified and can be considered concurrently in decision making.

Breadth and depth

Balancing Act provides an overview of the Australian economy using a set of ten environmental, social, and financial indicators. The environmental indicators are water use, land disturbance, greenhouse emissions and energy use; the social indicators are employment, government revenue and income; and the financial indicators are operating surplus (or profits), exports and imports.

The indicators are referenced against one dollar of ‘final demand’, roughly the consumption dollar we spend in everyday life. Balancing Act therefore tells us how much energy, water, land, employment (and so on) is embodied in every dollar in the Australian economy. The report is a resource for government and corporate decision-makers, as well as individual consumers. Balancing Act reveals some of the social and environmental implications of financial flows in the economy, and provides an indication of the resource intensity of different goods and services. It facilitates more informed decision making, and could provide direction for further research. By identifying direct effects (within the farm or factory fence) as well as the indirect effects (in the full supply chain), the innovative methodology shows us where environmental, social and economic impacts occur across the full production chain. This can highlight opportunities to increase benefits and reduce adverse impacts through individual and collective action.

The boundaries

Balancing Act uses the Australian system of national physical, social and economic accounts to provide reliable, empirical and comparable data. The report is based on the national accounts from the mid 1990s – the most recent complete set of data available when the project commenced. The results therefore provide a snapshot of the economy’s performance for this point in time. The methodology is reproducible, and could be used to prepare annual accounts revealing changes in Australia’s TBL performance over time. Because it is based on the Australian national accounts, Balancing Act is limited to resources used and activities taking place within Australia. It does not quantify resources used overseas which are embodied in imported goods and services. This would require preparation of similar accounts for all our major trading partners.

Jumping to conclusions

Balancing Act should not be read in isolation. A ‘below average’ indicator (eg high water use or low employment) does not necessarily indicate a problem or inefficiency. Different sectors perform different functions in the economy and all sectors have a mix of above and below average results. For example, agricultural sectors tend to be physically intense, with ‘below average’ environmental indicators, yet they generate ‘above average’ employment and exports. In contrast, many services sectors are physically light, with ‘above average’ environmental indicators, yet they generate ‘below average’ employment and exports. Thus information on the state of Australia’s environment, society and economy must also be considered when interpreting these results.

To find out more, download and read a complete copy of the report.

Enquiries

Please check the Balancing Act FAQ for more information. If you have further questions or queries, please email your enquiry to Integrated Sustainability Analysis (isa@physics.usyd.edu.au) at the University of Sydney.


>> Balancing Act FAQ

Reports

Balancing Act: A triple bottom line analysis of the Australian economy The Balancing Act report is divided into four volumes available for download as separate Adobe Acrobat pdf files. You will need Adobe Acrobat Reader to view the files. Each volume is a large file and may be slow to download across low bandwidth Internet connections. If you have problems downloading or accessing the files, please request the report on a CD ROM by emailing the Resource Futures Program cse.resfutures@csiro.au at CSIRO Sustainable Ecosystems.
    Forest carbon – own-able financial product or global common good? With the debate linking greenhouse gases and climate change increasingly shifting from the science arena into policy and finance, a number of issues are emerging around carbon trading. Carbon sequestered in forests until recently was un-ownable. But who owns the carbon and who trades in what some are calling a new financial product, or a new form of money, are still highly contested questions. Allocation of ownership rights is hampering the transition of carbon from collectively owned ecosystem input to individually owned commodity. But should forest carbon become a financial product? This paper examines the issue of carbon sequestered in forests and the global mechanisms to exploit it. Some of the consequences of distinguishing the carbon from the tree and building a multi-million dollar enterprise around this distinction are discussed. Consequences include carbon crime and the rebound effect of wealth accumulating to the wealthy and spent on carbon intensive goods; and the possibility of funds flowing back into forest communities. It concludes with the divergent consequences of two alternatives for exploiting the world’s forests.
Life-cycle energy and greenhouse gas emissions of nuclear energy in Australia The increased urgency of dealing with the mitigation of looming climate change has sparked renewed interest in the nuclear energy option. There exists a substantial stream of research on the amount of embodied energy and greenhouse gas emissions associated with nuclear-generated electricity. While conventional fossil-fuelled power plants cause emissions almost exclusively from the plant site, the majority of greenhouse gas emissions in the nuclear fuel cycle are caused in processing stages upstream and downstream from the plant. This paper distils the findings from a comprehensive literature review of energy and greenhouse gas emissions in the nuclear fuel cycle, and determines some of the causes for the widely varying results. The most popular reactor types, LWR and HWR, need between 0.1 and 0.3 kWhth, and on average about 0.2 kWhth for every kWh of electricity generated. These energy intensities translate into greenhouse gas intensities for LWR and HWR of between 10 and 130 g CO2-e / kWhel, with an average of 65 g CO2-e / kWhel. While these greenhouse gas are expectedly lower than those of fossil technologies (typically 600-1200 g CO2-e / kWhel), they are higher than reported figures for wind turbines and hydroelectricity (around 15-25 g CO2-e / kWhel), and in the order of, or slightly lower than solar photovoltaic or solar-thermal power (around 90 g CO2-e / kWhel).
Embedded carbon in the consumption of the UK – the UK’s carbon footprint This report is the result of collaborative work between the Stockholm Environment Institute and ISA, commissioned by Defra UK. It describes the development of a time series of input-output tables for the UK by using an automated data optimisation procedure that allows the construction of national input-output and environmental databases in greatest possible sector disaggregation, and that can be used for compiling multi-region environmental input-output models. Thus the work sets the basis for the routine calculation of carbon footprints for any country, enabling multi-regional analyses of environmental impacts associated with international trade flows, including the provision of a robust indicator for embedded emissions. The report has three parts: the Executive Summary, the main report, and a sensitivity and uncertainty calculation.
The Virtual Water Cycle of Victoria This report defines and quantifies the virtual water Cycle for Victoria. Virtual water is the water embodied in all products and services consumed in Victoria, rather than merely the direct water used. An understanding of our virtual water use has the potential to provide significant water savings, and to affect water use beyond the boundaries of cities and regions over the longer term. In particular, this report enhances the understanding of the link between irrigation water use and the consumption of Victoria’s residents, and provides improved awareness that lifestyle and consumption in the urban setting has a direct affect on how water is used throughout the whole of Australia, and to reinforce the message that improved rural water management is not a problem for farmers alone to tackle.
The Wider Social Benefits of Education Business and Industry are recognising that the social outcomes of doing business underpin their social licence to operate. The ISO 26000, to be introduced in 2008, will provide guidance on Social Responsibility (SR) for all types of organisations in both public and private sectors. The Global Reporting Initiative includes numerous social indicators in its reporting framework (GRI, 2006). Business and industry seem to be moving towards taking responsibility for the social effects of doing business, recognising that their organisations are embedded in community. Meanwhile in the field of education there has been a major shift in Australia towards private expenditure in the tertiary sector (OECD, 2006) accompanied by a shift of public subsidies to tertiary students themselves. Implicit in this funding shift is the message that tertiary education is a private rather than public good, belonging to individual students rather than the wider population. This paper explores the literature on the wider social benefits of higher education, most of which seem to be indirect, arising through the increased economic benefits to individuals. It points to the gaps in Australian research in this area.
The Ecological Footprint – Issues and Trends The ecological footprint was originally conceived as a simple and elegant method for comparing the sustainability of resource use among different populations, and has since considerably enriched the sustainability debate. Since the formulation of the ecological footprint, a number of researchers have mentioned the oversimplification in ecological footprints of the complex task of measuring sustainability of consumption. In particular, aggregated forms of the final ecological footprint make it difficult to understand the specific reasons for the unsustainability of the consumption of a given population, and to formulate appropriate policy responses. In response to the issues highlighted, the Ecological Footprint has undergone significant modification. Comprehensive input-output-based ecological footprints are now calculated in many countries, and applied to populations, companies, cities, regions and nations.
Shared Producer and Consumer Responsibility – Theory and Practice Over the past decade, an increasing number of authors have been examining producer versus consumer responsibility. Recently, a problem has appeared in drafting the standards for the Ecological Footprint: While the method traditionally assumes a full life-cycle perspective with full consumer responsibility, a large number of producers have started to calculate their own footprints. Adding any producer�s footprint to population footprints that all already cover the full upstream supply chain, leads to double-counting: The sum over footprints of producers and consumers is larger than the total national footprint. The committee in charge of the Footprint standardisation process was faced with the decades-old non-additivity problem, posing the dilemma of how to curtail the supply chains of actors in order to avoid double-counting. This report demonstrates a non-arbitrary method of consistently delineating these supply chains, into mutually exclusive and collectively exhaustive portions of responsibility to be shared by all actors in an economy.
Carbon neutral – sense and sensibility Businesses offering to make you or your company carbon neutral are proliferating on the internet. The term carbon neutral is being defined by common usage. There are no standard ways of measuring your carbon emissions and so no standards for becoming carbon neutral. This paper examines eleven websites offering carbon neutrality. It compares online calculators, their results and the costs of offsetting calculated on the strength of those results. It traces two offset projects from the online carbon offset retailer to the actual project on the ground in order to compare the online rhetoric with the time consuming and difficult work of developing community based projects in Third World countries. The paper offers a definition of carbon neutral based on the ways in which the term is being used. It also uncovers a range of issues for further discussion.
A definition of ‘carbon footprint’ The term �carbon footprint� has become very popular over the last few years and is now in widespread public use. With climate change high up on the political and corporate agenda, carbon footprint assessments are in strong demand. Despite its ubiquitous public use however, the scientific literature is surprisingly void of clarifications, let alone definitions of the term ‘carbon footprint’. This report explores the apparent discrepancy between public and academic use of the term �carbon footprint� and suggests a scientific definition based on commonly accepted accounting principles and modelling approaches. It addresses methodological questions such as system boundaries, completeness, comprehensiveness, units and robustness of the indicator.
Global warming effect of leakage from CO2 storage Most assessments of carbon capture and storage (CCS) characterise technologies in terms of annual or cumulative avoided emissions. However, the ultimate purpose of CCS is not the abatement of emissions, but the avoidance of damages to be expected from climate change. Two CO2 storage and monitoring projects have injected so far more than 5 Mt CO2 into a depleted oil field and more than 10 Mt CO2 into a deep saline formation without detectable leakage. However, technology assessments mention the possibility of rapid leakage paths, for example in form of failed wells. This report presents a thorough analysis of the relationship between CO2 leakage and global temperature change.
Assessing the impacts of a loaf of bread This paper provides detailed information about on-site and supply chain �costs� of producing a loaf of bread, in terms of indicators across the social, economic and environmental bottom lines. Both on-site and supply-chain viewpoints help to tell a story. Both are necessary components of �the true cost of a loaf of bread�. But the real decision about what to do with this information ultimately rests with people. What an integrated sustainability analysis of bread can offer are metrics and results, underpinned by a transparent philosophy, that can lay bare the intricacies of an interdependent and infinite supply chain.
Historical and potential future contributions of power technologies to global warming Using the mathematical formalism of the Brazilian Proposal to the IPCC, we analyse eight power technologies with regard to their past and potential future contributions to global warming. Taking into account detailed bottom-up technology characteristics we define the mitigation potential of each technology in terms of avoided temperature increase by comparing a �coal-only� reference scenario and an alternative low-carbon scenario. Historically (1900-2006), hydro, nuclear, and gas-fired power have achieved the largest mitigation. This ranking is partly due to the magnitudes at which these technologies are deployed, but in part also due to their deployment histories. Similarly, potential future (2009-2100) contributions are influenced by the magnitude of future capacity as well as temporal deployment profiles. A general conclusion is that early technology deployment matters. We conclusively show that avoided temperature increase is a better proxy for comparing technologies with regard to their impact on climate change, and that comparisons based on annual or even cumulative emissions may be misleading. Therefore, not only comparisons between countries, but also comparisons between technologies should be undertaken on the basis of avoided temperature increase rather than on the basis of annual emissions as is practice today.
Sustainable island businesses: a case study of Norfolk Island Conventional measures aimed at tackling the energy and waste issues of island communities focus on technological solutions, such as the introduction of renewable energy sources. There exists a history of technology implementations on small islands that have failed because of a lack of continuing skills and financial resources needed for ongoing operation and maintenance. Despite these experiences, what has received little attention so far are measures aimed at achieving island-friendly solutions by reducing their material metabolism, for example by recycling and re-use. The two case studies presented in this work show that conservation, efficiency and reductions of the overall material metabolism of economic activity can be as effective as purely technologically-driven changes. Both case studies demonstrate exceptional sustainability performance in terms of material flow, and greenhouse gas emissions. The income growth scenarios show that � from a sustainability point of view � increasing tourist yield rather than tourist numbers is preferable for coping with price hikes and a finite resource base, and is also more likely to keep within bounds the strain on the island�s people and infrastructure.
A vision of ecotourism in the Comoros Islands Despite their significant potential for ecotourism, the Comoros islands are thoroughly ignored in the international literature on the topic. In this paper we offer the first comprehensive assessment of the Comoros in terms of their socio-economic, demographic, geographic and political setting, and how this setting translates into opportunities and barriers for ecotourism. We present four sites that provide evidence for a realistic ecotourism vision. Notwithstanding the potential of these sites for generating tourist income, we assess a number of critical political and infrastructure challenges that will have to be overcome in order to turn the vision into reality.
Forecasting the Ecological Footprint of Nations – a blueprint for a dynamic approach This report provides the theoretical base and an example for expanding the static Ecological Footprint accounting method into a dynamic forecasting framework which is forward looking to 2050, incorporating biodiversity amongst other factors, into a causal network of driving forces, and taking into account globalised trade with its complex supply chains. This world-first Dynamic Ecological Footprint connects the original Ecological Footprint method with some modifications that were anchored at different points of the causal network, such as land use and disturbance, species diversity, and pollution. It thus demonstrates an effective and elegant means for unifying a range of methodologies and objectives into on framework while retaining the research question and metric of the original approach.
Systems for Social Sustainability: Global Connectedness and the Tuvalu Test We discuss the social dimension of the TBL as the social impact of (an organisation) doing business. Acknowledging the interconnectivity of social, environmental, and economic impacts on a local scale we recognise that everything we do together on this planet is connected through time and space in a seamless web of interactions. Moreover through this interdependency of living system and environment our actions are bound by something we refer to as human ethics. This brings us to the idea that the social dimension of TBL, which seeks ethical solutions to local social dilemmas is striving towards something that we call social sustainability and in some way is contributing to an ethical future for living systems. Hence the discussion moves from the social bottom line of an organisation, or workplace, into the notion of social sustainability and society as a whole because all of society is interlinked.
Unravelling the Impacts of Supply Chains The research question of this report is “How can corporate sustainability performance be quantified and compared in practice, whilst taking into account the responsibility sharing nature of trading and avoiding double-counting of impacts?”. The report a) describes the analytical approach to measure the indirect impacts of a comprehensive Triple Bottom Line account of a producing entity, b) presents a quantitative concept of shared responsibility as a solution to assigning responsibility to both producers and consumers, in a mutually exclusive and collectively exhaustive way, and c) demonstrates practical applications in examples of quantification of indirect impacts, supply chain contributions and shared responsibility.
Companies on the Scale: Ecological Footprint of Businesses Calculating the Ecological Footprint of a company ought to fulfil certain requirements. It has to take into account the direct Footprint impacts such as direct land appropriation and emissions from vehicles and premises. And it also must take account of indirect impacts that are embodied in all the purchases the company makes. As companies and individual (final) consumers are not at the same place in the life-cycle of production and consumption, different calculations and conversion factors have to be applied, otherwise there would be double-counting and non-comparability of Footprints. This report presents an extended input-output approach to calculate Footprints of companies that are truly comparable and discusses the implications for sustainable chain management and sector sustainability.
Accounting for Environmental Flows – Comparing the principles of UNFCCC and the SEEA The System of Environmental and Economic Accounting (SEEA) views CO2 sequestration as an ecosystem service, the Framework Convention on Climate Change (UNFCCC) allocates CO2 removals to forestry sectors. In effect, UNFCCC accounting provides the foundation for sequestered carbon to be owned and traded. Such ownership is not explicit in the SEEA. Moreover, interpretations of human inducement that are used to justify the classification of sequestered carbon as ‘anthropogenic’ differ substantially between the UNFCCC and the SEEA. Accounting dissonances and uncertain ownership rules can affect industry perspectives on their operations. Global markets for carbon from forests are still small, but with increasing pressure for abatement measures and increasing demand for forest space, problems surrounding the accounting for human-induced change, customary ownership of forests, and the allocation of property rights are likely to hamper the transition of carbon from collectively owned ecosystem input to individually owned commodity.
On the bioproductivity and land disturbance metrics of the Ecological Footprint Since the Ecological Footprint was invented, research groups around the world have adapted the concept to their particular circumstances. In particular, researchers have used different metrics that pertain to different research questions. For example, while the metric used by the organisers of the Global Footprint Network expresses bioproductivity requirements in global hectares, an Australian approach examines land disturbance in local hectares. This report – co-authored by researchers from ISA and WWF – follows up on discussions at the Ecological Footprint Forum in Italy (2006). It highlights a number of situations, where managing for bioproductivity alone may lead to counter-productive incentives. We conclude that in these cases, the bioproductivity metric needs to be complemented with additional information such as on land disturbance and biodiversity.
The Ecological Footprint of Victoria � Assessing Victoria’s Demand on Nature EPA Victoria commissioned Global Footprint Network and the University of Sydney to jointly produce a robust assessment of the State of Victoria�s Ecological Footprint. The purpose of this study was two-fold: 1. Calculate Victoria�s Footprint using two different methods; 2. Assess the relative strengths and weaknesses of both approaches, with the ultimate goal of making the two methods compatible and consistent.

More reports:

Lenzen M, Individual responsibility and climate change.

Lenzen M, Nature, preparation and use of water accounts in Australia, Cooperative Research Centre for Catchment Hydrology, Technical Report 04/2, Monash University, Melbourne, Australia, 2004.

Lenzen M and Wood R, Ecological Footprint and Triple Bottom Line Report for Wollongong Council and the Wollongong Population, commissioned by Wollongong Council, Wollongong, Australia, 2003.

Foran B, Lenzen M, Dey C and Bilek M, A Novel TBL Initiative, ISA Research Paper 01-02.

Lenzen M and Dey C, The Ecological Footprint of Canberra, commissioned by the Australian Capital Territory’s Office of Sustainability, 2004.

Lenzen M, Lundie S, Bransgrove G, Charet L, and Sack F, A novel Ecological Footprint and an example , ISA Research Paper 02-02.

Davies O, and Murray J, Literacy Learning On Line: An evaluation of the 2001 Log on to Literacy Program, report to the NSW Department of Education and Training, Training and Development Directorate, Sydney, 2002.

Lenzen M, The influence of lifestyles on environmental pressure, commissioned by the Australian Bureau of Statistics for its 2002 Year Book Australia.

Green B, Bigum C, Durrant C, Honan E, Lankshear C, Morgan W, Murray J, Snyder I, and Wilde M, Digital Rhetorics. Literacies and Technologies in Education – Current Practices and Future Directions, commissioned by Department of Employment Education Training and Youth Affairs, Commonwealth of Australia, 1997.

Publications @ ISA

Journal Articles

TOP

2017

Alsamawi, A, Murray, J, Lenzen, M and Reyes, RC (2017), Trade in occupational safety and health: Tracing the embodied human and economic harm in labour along the global supply chain, Journal of Cleaner Production 147, 187-196.

Faturay, F, Lenzen, M and Nugraha, K (2017), A new sub-national multi-region input–output database for Indonesia, Economic Systems Research 29, 234-251.

Hui, M, Wu, Q, Wang, S, Liang, S, Zhang, L, Wang, F, Lenzen, M, Wang, Y, Xu, L, Lin, Z, Yang, H, Lin, Y, Larssen, T, Xu, M and Hao, J (2017), Mercury flows in China and global drivers, Environmental Science & Technology 51, 222-231.

Lenzen, M, Geschke, A, Abd Rahman, MD, Xiao, Y, Fry, J, Reyes, R, Dietzenbacher, E, Inomata, S, Kanemoto, K, Los, B, Moran, D, Schulte in den B�umen, H, Tukker, A, Walmsley, T, Wiedmann, T, Wood, R and Yamano, N (2017), The Global MRIO Lab – charting the world economy, Economic Systems Research 29, 158-186.

Lenzen, M, Geschke, A, Malik, A, Fry, J, Lane, J, Wiedmann, T, Kenway, S, Hoang, K and Cadogan-Cowper, A (2017), New multi-regional input–output databases for Australia – enabling timely and flexible regional analysis, Economic Systems Research 29, 275-295.

Rahman, MDA, Los, B, Geschke, A, Xiao, Y, Kanemoto, K and Lenzen, M (2017), A flexible adaptation of the WIOD database in a virtual laboratory, Economic Systems Research 29, 187-208.

Xiao, Y, Beno�t-Norris, C, Lenzen, M, Norris, G and Murray, J (2017), How social footprints of nations can assist in achieving the sustainable development goals, Ecological Economics 135, 55-65.

2016

Eisenmenger, N, Wiedenhofer, D, Schaffartzik, A, Giljum, S, Bruckner, M, Schandl, H, Wiedmann, TO, Lenzen, M, Tukker, A and Koning, A (2016), Consumption-based material flow indicators — Comparing six ways of calculating the Austrian raw material consumption providing six results, Ecological Economics 128, 177-186.

G�mez-Paredes, J, Alsamawi, A, Yamasue, E, Okumura, H, Ishihara, KN, Geschke, A and Lenzen, M (2016), Consuming Childhoods: An Assessment of Child Labor’s Role in Indian Production and Global Consumption, Journal of Industrial Ecology 20, 611-622.

Lan, J, Malik, A, Lenzen, M, McBain, D and Kanemoto, K (2016), A structural decomposition analysis of global energy footprints, Applied Energy 163, 436-451.

Lenzen, M (2016), Structural analyses of energy use and carbon emissions – an overview, Economic Systems Research 28, 119-132.

Lenzen, M, Geschke, A, Abd Rahman, MD, Xiao, Y, Fry, J, Reyes, R, Dietzenbacher, E, Inomata, S, Kanemoto, K, Los, B, Moran, D, Schulte in den B�umen, H, Tukker, A, Walmsley, T, Wiedmann, T, Wood, R and Yamano, N (2016), The Global MRIO Lab – charting the world economy, Economic Systems Research submitted – this Special Issue.

Lenzen, M, Malik, A and Foran, B (2016), How challenging is decoupling for Australia?, Journal of Cleaner Production 139, 796-798.

Lenzen, M, Malik, A and Foran, B (2016), Reply to Schandl et al., 2016, JCLEPRO and Hatfield-Dodds et al., 2015, Nature: How challenging is decoupling for Australia?, Journal of Cleaner Production 139, 796-798.

Lenzen, M, McBain, B, Trainer, T, J�tte, S, Rey-Lescure, O and Huang, J (2016), Simulating low-carbon electricity supply for Australia, Applied Energy 179, 553-564.

Malik, A, Lan, J and Lenzen, M (2016), Trends in global greenhouse gas emissions from 1990 to 2010, Environmental Science & Technology 50, 4722–4730.

Malik, A, Lenzen, M and Geschke, A (2016), Triple bottom line study of a lignocellulosic biofuel industry, Global Change Biology – Bioenergy 8, 96-110.

Oita, A, Malik, A, Kanemoto, K, Geschke, A, Nishijima, S and Lenzen, M (2016), Substantial nitrogen pollution embedded in international trade, Nature Geoscience 9, 111-115.

Reyes, RC, Lenzen, M and Murray, J (2016), Better Global Assessment of Worker Inequality: Comment on �The Employment Footprints of Nations�, Journal of Industrial Ecology DOI: 10.1111/jiec.12489.

Steen-Olsen, K, Owen, A, Barrett, J, Guan, D, Hertwich, EG, Lenzen, M and Wiedmann, T (2016), Accounting for value added embodied in trade and consumption: an intercomparison of global multiregional input–output databases, Economic Systems Research 28, 78-94.

Wiebe, KS and Lenzen, M (2016), To RAS or not to RAS? What is the difference in outcomes in multi-regional input–output models?, Economic Systems Research 28, 383-402.

Xiao, Y, Lenzen, M, Beno�t-Norris, C, Norris, G and Murray, J (2016), The corruption footprints of nations, Journal of Industrial Ecology DOI: 10.1111/jiec.12537.

2015

Fry, J, Lenzen, M, Giurco, D and Pauliuk, S (2015), An Australian Multi-Regional Waste Supply-Use framework, Journal of Industrial Ecology in press.

Moran, D, McBain, D, Kanemoto, K, Lenzen, M and Geschke, A (2015), Global Supply Chains of Coltan, Journal of Industrial Ecology 19, 357-365.

Rodr�guez-Alloza, AM, Malik, A, Lenzen, M and Gallego, J (2015), Hybrid input–output life cycle assessment of warm mix asphalt mixtures, Journal of Cleaner Production 90, 171-182.

Rowley, HV, Geschke, A and Lenzen, M (2015), A practical approach for estimating weights of interacting criteria from profile sets, Fuzzy Sets and Systems 272, 70-88.

Schandl, H, Hatfield-Dodds, S, Wiedmann, T, Geschke, A, Cai, Y, West, J, Newth, D, Baynes, T, Lenzen, M and Owen, A (2015), Decoupling global environmental pressure and economic growth: scenarios for energy use, materials use and carbon emissions, Journal of Cleaner Production 132, 45-56.

Schulte in den B�umen, H, T�bben, J and Lenzen, M (2015), Labour forced impacts and production losses due to the 2013 flood in Germany, Journal of Hydrology 527, 142-150.

Wang, Y, Geschke, A and Lenzen, M (2015), Constructing a time series of nested multiregion input–output tables, International Regional Science Review 38, 1-24.

Wiedmann, TO, Schandl, H, Lenzen, M, Moran, D, Suh, S, West, J and Kanemoto, K (2015), The material footprint of nations, Proceedings of the National Academy of Sciences 112, 6271–6276.

2014

Alsamawi, A, Murray, J and Lenzen, M (2014), The employment footprints of nations: uncovering master-servant relationships, Journal of Industrial Ecology 18, 59-70.

Alsamawi, A, Murray, J, Lenzen, M, Kanemoto, K and Moran, D (2014), A novel approach to quantitative accounting of income inequality, PLOS ONE 9, e110881.

Geschke, A, Wood, R, Kanemoto, K, Lenzen, M and Moran, D (2014), Investigating alternative approaches to harmonise MRIO data, Economic Systems Research 26, 354-385.

Heijungs, R and Lenzen, M (2014), Error propagation methods for LCA—a comparison, The International Journal of Life Cycle Assessment 19, 1445-1461.

Kanemoto, K, Moran, D, Lenzen, M and Geschke, A (2014), International trade undermines national emission reduction targets: New evidence from air pollution, Global Environmental Change 24, 52-59.

Lenzen, M (2014), An outlook into a possible future of footprint research, Journal of Industrial Ecology 18, 4-6.

Lenzen, M, Geschke, A, Wiedmann, T, Lane, J, Anderson, N, Baynes, T, Boland, J, Daniels, P, Hadjikakou, M, Kenway, S, Moran, D, Murray, J, Nettleton, S, Poruschi, L, Reynolds, C, Rowley, H, Ugon, J, Webb, D and West, J (2014), Compiling and using input-output frameworks through collaborative virtual laboratories, Science of the Total Environment 485–486, 241–251.

Lenzen, M, Krishnapillai, M, Talagi, D, Quintal, J, Quintal, D, Grant, R, Abraham, S, Ehmes, C and Murray, J (2014), Cultural and socio-economic determinants of energy consumption on small remote islands, Natural Resources Forum 38, 27-46.

Lenzen, M, Moran, DD, Geschke, A and Kanemoto, K (2014), A non-sign-preserving RAS variant, Economic Systems Research 26, 197-208.

Lenzen, M and Reynolds, CJ (2014), A Supply-Use Approach to Waste Input-Output Analysis, Journal of Industrial Ecology 18, 212-226.

Malik, A, Lenzen, M, Neves Ely, R and Dietzenbacher, E (2014), Simulating the impact of new industries on the economy – the case of biorefining in Australia, Ecological Economics 107, 84-93.

Malik, A, Lenzen, M, Ralph, PJ and Tamburic, B (2014), Hybrid life cycle assessment of algal biofuel production, Bioresource Technology 184, 436–443.

Murray, J, Lenzen, M and Murray, J (2014), Forest carbon—Questions of indigenous rights and market forces, Environmental Justice 7, 33-38.

Owen, A, Steen-Olsen, K, Barrett, J, Wiedmann, T and Lenzen, M (2014), A structural decomposition approach to comparing MRIO databases, Economic Systems Research 26, 262-283.

Schulte in den B�umen, H, Moran, D, Lenzen, M, Cairns, I and Steenge, A (2014), How severe space weather can disrupt global supply chains, Nat. Hazards Earth Syst. Sci. 14, 2749-2759.

Steen-Olsen, K, Owen, A, Hertwich, EG and Lenzen, M (2014), Effects of sectoral aggregation on CO2 multipliers in MRIO analyses, Economic Systems Research 26, 284-302.

2013

Barrett, J, Peters, G, Wiedmann, T, Scott, K, Lenzen, M, Roelich, K and Le Qu�r�, C (2013), Consumption-based GHG emission accounting: a UK case study, Climate Policy 13, 451-470.

Dietzenbacher, E, Lenzen, M, Los, B, Guan, D, Lahr, ML, Sancho, F, Suh, S and Yang, C (2013), Input–output analysis: The next 25 years, Economic Systems Research 25, 369-389.

Lenzen, M and Cummins, B (2013), Happiness vs the environment – a case study of Australian lifestyles, Challenges 4, 56-74, http://www.mdpi.com/2078-1547/4/1/56.

Lenzen, M, Dey, C, Foran, B, Widmer-Cooper, A, Ohlem�ller, R, Williams, M and Wiedmann, T (2013), Modelling interactions between economic activity, greenhouse gas emissions, biodiversity and agricultural production, Environmental Modeling & Assessment 18, 1-40.

Lenzen, M, Moran, D, Bhaduri, A, Kanemoto, K, Bekchanov, M, Geschke, A and Foran, B (2013), International trade of scarce water, Ecological Economics 94, 78-85.

Lenzen, M, Moran, D, Kanemoto, K and Geschke, A (2013), Building Eora: A global multi-region input-output database at high country and sector resolution, Economic Systems Research 25, 20-49.

Lenzen, M, Schaeffer, R, Karstensen, J and Peters, G (2013), Drivers of change in Brazil�s carbon dioxide emissions, Climatic Change 121, 815-824.

Moran, DD, Lenzen, M, Kanemoto, K and Geschke, A (2013), Does ecologically unequal exchange occur?, Ecological Economics 89, 177-186.

Wiedenhofer, D, Lenzen, M and Steinberger, JK (2013), Energy requirements of consumption: Urban form, climatic and socio-economic factors, Energy Policy 63, 696-707.

2012

Lenzen M, Moran D, Kanemoto K, Foran B, Lobefaro L and Geschke A, International trade drives species threats, Nature 486, 109�112, 2012.

Lenzen M, Kanemoto K, Moran D and Geschke A, Mapping the structure of the world economy, Environmental Science & Technology, 48 (15), 8374�8381, 2012.

Nansai K, Kondo Y, Kagawa S, Suh S, Nakajima K, Inaba R and Tohno S, Estimates of embodied global energy and air-emission intensities of Japanese products for building a Japanese input-output Life-Cycle Assessment database with a global system boundary, Environmental Science & Technology 46(16), 9146�9154, 2012.

Lenzen M, Pinto de Moura M C, Geschke A, Kanemoto K and Moran D D, A cycling method for constructing input-output table time series from incomplete data, Economic Systems Research, 24 (4), 413�432, 2012.

Nansai K, Oguchi M, Suzuki N, Kida A, Nataami T, Tanaka C and Haga M, High-Resolution Inventory of Japanese Anthropogenic Mercury Emissions, Environmental Science & Technology 46(9), 4933�4940, 2012.

Kanemoto K, Lenzen M, Peters G, Moran D and Geschke A, Frameworks for comparing emissions associated with production, consumption, and international trade, Environmental Science & Technology 46(1), 172�179, 2012.

Marques A, Rodrigues J, Lenzen M and Domingos T, Income-based environmental responsibility, Ecological Economics 84, 57�65, 2012.

Liu C-H, Lenzen M and Murray J, A disaggregated greenhouse gas inventory for Taiwan with uses in hybrid Life-Cycle Assessment, Natural Resources Forum 36, 123�141, 2012.

Lenzen M and McBain B, Using tensor calculus for scenario modeling, Environmental Modelling & Software 37, 41�54, 2012.

Nansai K, Kagawa S, Kondo Y, Suh S, Nakajima K, Inaba R, Oshita Y, Morimoto T, Kawashima K, Terakawa T, and Tohno S, Characterization of Economic Requirements for a “Carbon-Debt-Free Country”, Environmental Science & Technology, DOI: 10.1021/es202007b, 2012.

Lenzen M and Rueda-Cantuche J M, A note on the use of supply-use tables in impact analysis, Statistics and Operations Research Transactions, 36 (2), 139�152, 2012.

Lenzen M and S Lundie, Constructing enterprise input-output tables � a case study of New Zealand dairy products, Journal of Economic Structures, DOI 10.1186/2193-2409-1-6, 2012.

2011

Lenzen M and Schaeffer R, Historical and potential future contributions of power technologies to global warming, Climatic Change, DOI: 10.1007/s10584-011-0270-y, 2011.

Wiedmann T, Suh S, Feng K, Lenzen M, Acquaye A, Scott K, and Barrett J B, Application of hybrid Life Cycle Approaches to emerging energy technologies: The case of wind power in the UK, Environmental Science & Technology 45(13), 5900-5907, 2011.

Lenzen M and Cummins B, Wellbeing versus the environment, Journal of Industrial Ecology 15 (5), 650�652, 2011.

Wiedmann T, Wilting H C, Lenzen M, Lutter S and Palm V, Quo vadis MRIO? Methodological, data and institutional requirements for Multi-Region Input-Output analysis, Ecological Economics 70(11), 1937-1945, 2011.

Baynes T M, Lenzen M, Steinberger J K and Bai X, Comparison of household consumption and regional production approaches to assessing urban energy use and implications for policy, Energy Policy 39, 7298-7309, 2011.

Daniels P J, Lenzen M and Kenway S J, The ins and outs of water use – A review of multi-region input-output analysis and water footprints for regional sustainability analysis and policy, Economic Systems Research 23(4), 353�370, 2011.

Lenzen M, Aggregation versus disaggregation in the input-output analysis of the environment, Economic Systems Research 23 (1), 73�89, 2011.

Murray J, Wiedmann T and Dey C, Response to Corporate Carbon Performance Indicators Revisited, Journal of Industrial Ecology 15(1), 158�160, 2011.

Lenzen M and Murray J, Accounting for carbon: Comparing the UNFCCC and the SEEA, Journal of Society and Resources, 24(11), 1216�1227, 2011.

Lenzen M, The global warming effect of leakage from CO2 storage, Critical Reviews in Environmental Science and Technology 41(24), 2169�2185, 2011.

2010

Lenzen M and Peters G, How city dwellers affect their resource hinterland � a spatial impact study of Australian households, Journal of Industrial Ecology 14(1), 73�90, 2010.

Wiedmann T, Wood R, Minx J, Lenzen M, Guan D and Harris R, The carbon footprint of the UK – Results from a Multi-Region Input-Output Model, Economic Systems Research 22(1), 19�42, 2010.

Lenzen M, Wood R and Wiedmann T, Uncertainty analysis for Multi-Region Input-Output Models � a case study of the UK�s carbon footprint, Economic Systems Research 22(1), 43�63, 2010.

Lenzen M, Current state of development of electricity-generating technologies: A literature review, Energies 3, 462�591, 2010.

Badcock J and Lenzen M, Subsidies for electricity-generating technologies: a review, Energy Policy 38(9), 5038�5047, 2010.

Lenzen M, Benrimoj C and Kotic B, Input-output analysis for business planning: a case study of the University of Sydney, Economic Systems Research 22(2), 155�179, 2010.

Lenzen M and J Murray, Conceptualising environmental responsibility, Ecological Economics 70(2), 261�270, 2010.

Baboulet O and Lenzen M, Evaluating the environmental performance of a University, Journal of Cleaner Production 18, 1134�1141, 2010.

2009

Minx JC, Wiedmann T, Wood R, Peters GP, Lenzen M, Owen A, Scott K, Barrett J, Hubacek K, Baiocchi G, Paul A, Dawkins E, Briggs J, Guan D, Suh S, and Ackerman F, Input-output analysis and carbon footprinting: an overview of applications, Economic Systems Research, 21(3), 187�216, 2009

Huang A, Lenzen M, Weber C, Murray J and Matthews S, The role of input-output analysis for the screening of corporate carbon footprints, Economic Systems Research, 21(3), 217-242, 2009

Lenzen M and Crawford R, The Path Exchange method for Hybrid LCA, Environmental Science & Technology 43 (21), 8251�8256, 2009.

Wood R and Dey CJ, Australia’s carbon footprint, Economic Systems Research, 21(3), 243-266, 2009

Lenzen M, Understanding virtual water flows – a multi-region input-output case study of Victoria, Water Resources Research 45, DOI 10.1029/2008wr007649, 2009.

Kitzes J, Galli A, Bagliani M, Barrett J, Dige G, Ede S, Erb K, Giljum S, Haberl H, Hails C, Jolia-Ferrier L, Jungwirth S, Lenzen M, Lewis K, Loh J, Marchettini N, Messinger H, Milne K, Moles R, Monfreda C, Moran D, Nakano K, Pyhälä A, Rees W, Simmons C, Wackernagel M, Wada Y, Walsh C and Wiedmann T, A research agenda for improving national Ecological Footprint accounts, Ecological Economics 68(7), 1991-2007, 2009

Lenzen M, Dealing with double-counting in tiered hybrid life-cycle inventories: a few comments, Journal of Cleaner Production, 17(15), 1382-1384, 2009

Wood R, Foran B and Lenzen M, A material history of Australia: evolution of material intensity and drivers of change, Journal of Industrial Ecology,13(6), 847-862, 2009

Maganov P, Lenzen M and Ryan F, ‘Operationalising’ the ecological footprint metric within a municipal authority, Journal of Public Works & Infrastructure 1(4), 391-406, 2009

Wiedmann T, Lenzen M and Barrett J, Companies on the scale: Comparing and benchmarking the sustainability performance of businesses, Journal of Industrial Ecology, 13(3), 361-383, 2009

Lenzen M, Gallego B, and Wood R, Matrix balancing under conflicting constraints, Economic Systems Research, 21(1), 23-44, 2009

Wood R and Lenzen M, Structural Path Decomposition, Energy Economics 31(3), 335-341, 2009

Wood R and Lenzen M, Aggregate measures of complex economic structure and evolution – a review and case study, Journal of Industrial Ecology,13(2), 264-283, 2009

Wachsmann U, Wood R, Lenzen M and Schaeffer R, Structural decomposition of energy consumption in Brazil between 1970 and 1996, Applied Energy, 86(4), 578-587, 2009

Murray J, The Wider Social Benefits of Higher Education, The Australian Journal of Education, 53(3), in press, 2009

Murray J and Dey C, The carbon neutral free for all, International Journal of Greenhouse Gas Control  3(2), 237-248, 2009

Lenzen M, Lane A, Widmer-Cooper A, and Williams M, Effects of land use on threatened species, Conservation Biology, 23(2), 294-306,2009

2008

Lenzen M, Consumer and producer environmental responsibility: a reply, Ecological Economics 66(2-3), 547-550, 2008

Lenzen M, Double-counting in life cycle Calculations, Journal of Industrial Ecology, 12(4), 583-599, 2008

Lenzen M, The energy balance and life-cycle greenhouse gas emissions of nuclear energy, Energy Conversion & Management 49(8), 2178-2199, 2008

Lenzen M, Sustainable island businesses: a case study of Norfolk Island, Journal of Cleaner Production 16(18), 2018-2035, 2008

Peters G, Sack F, Lenzen M, Lundie S and Gallego B, Towards a deeper and broader ecological footprint, Engineering Sustainability, 161(1), 31-37, 2008

2007

Lenzen M, Aggregation (in-)variance of shared responsibility: a case study of Australia, Ecological Economics 64(1) 19-24, 2007

Lenzen M, Murray J, Sack F and Wiedmann T, Shared producer and consumer responsibility � theory and practice, Ecological Economics 61(1), 27-42, 2007.

Murray J, Dey C, and Lenzen M, Systems for Social Sustainability: Global Connectedness and the Tuvalu Test, Cybernetics and Human Knowing, 14 (10), 87-105, 2007

Lenzen M, Wood R and Gallego B, Some comments on the GRAS method, Economic Systems Research 19(4), 461-465, 2007

Murray J, Dey C, and Lenzen M, Systems for Social Sustainability: Global Connectedness and the Tuvalu Test, Journal of Sociocybernetics, 5(1-2), 34-56, 2007

Lenzen M, Schaeffer R and Matsuhashi R, Selecting sustainable CDM projects: a multi-criteria decision analysis, Climate Policy, 7, 121-138, 2007.

Wiedmann, T and Lenzen M, On the conversion between global hectares and local hectares in Ecological Footprint analyses, Ecological Economics 60(4), 673-677, 2007.

Lenzen M, Borgstr�m-Hansen C and Bond S, On the bioproductivity and land-disturbance metrics of the Ecological Footprint, Ecological Economics 61(1), 6-10, 2007.

Murray J, Cybernetic Circularity in Teaching and Learning, International Journal of Teaching and Learning in Higher Education 18(3), 215-221, 2007.

Turner K, Lenzen M, Wiedmann T and Barrett J, Examining the Global Environmental Impact of Regional Consumption Activities � Part 1: A Technical Note on Combining Input-Output and Ecological Footprint Analysis, Ecological Economics 62(1), 37-44, 2007.

Wiedmann T, Lenzen M, Turner K and Barrett J, Examining the Global Environmental Impact of Regional Consumption Activities � Part 2: Review of input-output models for the assessment of environmental impacts embodied in trade, Ecological Economics 61(1), 27-42, 2007.

Vardon M, Lenzen M, Dey C, Peevor S, and Creaser M, Water Accounting in Australia, Ecological Economics 61(4), 650-659, 2007.

Royne A and Dey C, Design of a jet impingement cooling device for densely packed PV cells under high concentration, Solar Energy 81(8), 1014-1024, 2007.

2006

Lenzen M, Gallego B and Wood R, A flexible approach to matrix balancing under partial information, Journal of Applied Input-Output Analysis, 11&12, 1-24, 2006.

Peters G, Sack F, Lenzen M, Lundie S and Gallego B, A novel Ecological Footprint calculation for the Australian water industry: regionalisation and inclusion of downstream impacts, Journal of Applied Input-Output Analysis, 11&12, 73-90, 2006.

Lenzen M, Structural path analysis of ecosystem networks, Ecological Modelling, 200, 334-342, 2006.

Wood R and Lenzen M, Zero-value problems in the Logarithmic Mean Divisia Index decomposition method, Energy Policy, 34, 1326-1331, 2006.

Lenzen M, Wier M, Cohen C A M J, Hayami H, Pachauri S, and Schaeffer R, A comparative multivariate analysis of energy requirements of households in Australia, Brazil, Denmark, India and Japan, Energy, 31 (2-3), 181-207, 2006.

Royne A and Dey C, Effect of nozzle geometry on pressure drop and heat transfer in submerged jet arrays, International Journal of Heat and Mass Transfer, 49(3-4), 800-804, 2006.

Lenzen M, Decomposition Analysis and the Mean-Rate-of-Change Index, Applied Energy, 83, 185-198, 2006.

Wood R, Lenzen M, Dey C and Lundie S, A comparative study of some environmental impacts of conventional and organic farming in Australia, Agricultural Systems, 89(2-3), 324-348, 2006.

Lenzen M, Uncertainty of end-point impact and externality measures: implications for decision-making, International Journal of Life-Cycle Assessment 11(3), 189-199, 2006.

2005

Foran B, Lenzen M, Dey C and Bilek M, Integrating Sustainable Chain Management with Triple Bottom Line Reporting, Ecological Economics, 52(2), 143-157, 2005.

Gallego B and Lenzen M, A consistent formulation of producer and consumer responsibility, Economic Systems Research, 17(4), 365-391, 2005.

Munksgaard J, Wier M, Lenzen M, and Dey C, Using input-output analysis to measure the environmental pressure of consumption at different spatial levels, Journal of Industrial Ecology, 9(1-2), 169-185, 2005

Lenzen M and Treloar G, Endogenising capital � a comparison of two methods, Journal of Applied Input-Output Analysis, 10, 1-11, 2005.

Royne A, Dey C and Mills D, Cooling of photovoltaic cells under concentrated illumination: a critical review, Solar Energy Materials and Solar Cells 84(4), 451-483, 2005.

Munksgaard J, Pade L-L, Minx J and Lenzen M, Influence of trade on national CO2 emissions, International Journal of Global Energy Issues, 23(4), 324-336, 2005.

Cohen C A M J, Lenzen M and Schaeffer R, Energy requirements of households in Brazil , Energy Policy, 33(4), 555-562, 2005.

Munksgaard J, Lenzen M, Jensen T C and Pade L-L, Transport energy embodied in consumer goods: a hybrid life-cycle analysis, Energy and Environment, 16(1), 27-45, 2005.

Lenzen M, Collins R E and Prince K, Method of measuring depth profile of hydrogen in soda-lime glass, Journal of Non-Crystalline Solids, 351(4), 317-322, 2005.

2004

Lenzen M and Schaeffer R, Environmental and social accounting for Brazil, Environmental and Resource Economics, 27, 201-226, 2004.

Lenzen M and Wachsmann U, Wind energy converters in Brazil and Germany : an example for geographical variability in LCA, Applied Energy, 77, 119-130, 2004.

Suh S, Lenzen M, Treloar G J, Hondo H, Horvath A, Huppes G, Jolliet O, Klann U, Krewitt W, Moriguchi Y, Munksgaard J, Norris G, System boundary selection in life cycle inventories using hybrid approaches, Environmental Science & Technology, 38(3), 657-664, 2004.

Lenzen M, Dey C J and Foran B, Energy requirements of Sydney households, Ecological Economics, 49(3), 375-399, 2004.

Dey C, Heat transfer aspects of an elevated linear absorber, Solar Energy, 76(1-3), 243-249, 2004.

Lenzen M and Schaeffer R, Interrelational income distribution in Brazil , The Developing Economies, XLII (3), 371-391, 2004

Lenzen M, Dey C and Murray S A, Historical accountability and cumulative impacts: the treatment of time in corporate sustainability reporting, Ecological Economics, 51, 237-250, 2004.

Buie D, McCann MJ, Weber K and Dey C, Full day simulations of anti-reflection coatings for flat plate silicon photovoltaics, Solar Energy Materials & Solar Cells 81(1), 13-24, 2004.

Lenzen M, Pade L-L and Munksgaard J, CO2 multipliers in single-region and multi-region input-output models, Economic Systems Research, 16(4), 391-412, 2004.

2003

Lenzen M and Treloar G, Differential convergence of factor requirements towards upstream production stages � Implications for life-cycle assessment, Journal of Industrial Ecology, 6(3-4), 137-160, 2003.

Buie D, Monger A and Dey C, Sunshape distributions for terrestrial solar simulations, Solar Energy, 74(2), 113-122, 2003.

Lenzen M, Lundie S, Bransgrove G, Charet L and Sack F, Assessing the ecological footprint of a large metropolitan water supplier � lessons for water management and planning towards sustainability, Journal of Environmental Planning and Management, 46(1), 113-141, 2003.

Murray J, Wellness and Wisdom: Is it all a matter of Learning? Teaching and Learning, 17(3), 145-154, 2003.

Wood R and Lenzen M, An application of an improved ecological footprint method and structural path analysis in a comparative institutional study, Local Environment, 8(4), 365-384, 2003.

Lenzen M, Murray S A, Korte B and Dey C J, Environmental impact assessment including indirect effects � a case study using input-output analysis, Environmental Impact Assessment Review, 23(3), 263-282, 2003.

Buie D, Dey C and Bosi S, The effective size of the solar cone for solar concentrating systems, Solar Energy, 74(5), 417-427, 2003.

2002

Lenzen M, Environmentally important linkages and key sectors in the Australian economy, Structural Change and Economic Dynamics, 14(1), 1-34, 2002.

Lenzen M and Munksgaard J, Energy and CO2 life-cycle analyses of wind turbines � review and applications, Renewable Energy, 26(3), 339-362, 2002.

Murray J, The Placebo Effect in Teaching and Learning, Cybernetics and Human Knowing, 9(3-4), 101-115, 2002.

Lenzen M and Dey C J, Economic, energy and emissions impacts of some consumer choices, technologies and government outlays, Energy Economics, 24(4), 377-403, 2002.

Lenzen M and Treloar G, Embodied energy in buildings: wood versus concrete, Energy Policy, 30(3), 249-255, 2002.

Lenzen M, Dey C and Murray J, A personal approach to teaching about climate change, Australian Journal of Environmental Education, 18, 35-45, 2002.

Lenzen M and Treloar G, Differential convergence of factor requirements towards upstream production stages � Implications for life-cycle assessment, Journal of Industrial Ecology, 6(3-4), 137-160, 2002.

Lenzen M, A guide for compiling inventories in hybrid LCA: some Australian results, Journal of Cleaner Production, 10, 545-572, 2002.

2001

Lenzen M and Murray S A, A modified ecological footprint method and its application to Australia , Ecological Economics, 37(2), 229-255, 2001.

Lenzen M and Foran B, An input-output analysis of Australian water usage, Water Policy, 3(4), 321-340, 2001.

Murray J, Who am I? And will you still love me when my memory enhancer forgets your birthday? Cybernetics and Human Knowing, 8(3) 61-75, 2001.

Lenzen M and Murray J, The role of equity and lifestyles in education about climate change: experiences from a large-scale teacher development program, Canadian Journal of Environmental Education, 6, 32-51, 2001.

Lenzen M, A generalised input-output multiplier calculus for Australia , Economic Systems Research, 13(1), 65-92, 2001.

Lenzen M, Errors in conventional and input-output-based life-cycle inventories, Journal of Industrial Ecology, 4(4), 127-148, 2001.

Lenzen M, The importance of goods and services consumption in household greenhouse gas calculators, Ambio, 30(7), 439-442, 2001.

Wier M, Lenzen M, Munksgaard J and Smed S, Effects of household consumption patterns on CO2 requirements, Economic Systems Research, 13(3), 259-274, 2001.

2000

Lenzen M and Dey C, Truncation error in embodied energy analyses of basic iron and steel products, Energy, 25(6), 577-585, 2000.

Lenzen M and Smith S, Teaching responsibility for climate change: three neglected issues, Australian Journal of Environmental Education, 15/16, 69-78, 2000.���������

1999

Lenzen M, Total requirements of energy and greenhouse gases for Australian transport, Transportation Research D 4, 265-290, 1999.

Murray J, New Technology, New Literacy: What is it? Who�s doing it? Where is it going? Literacy Learning: Secondary Thoughts, 7(2), 32-41, 1999.

Lenzen M, Greenhouse gas analysis of solar-thermal electricity generation, Solar Energy, 65(6), 353-368, 1999

Lenzen M and McKenzie D R, Comparative measurements of 222Rn exhalation from rocks and soil of the Sydney area, Radiation Protection in Australasia, 16(2), 16-21, 1999

Murray J, Reading the Teacher: Teacher as multimedia text in the classroom communication milieu, Cybernetics and Human Knowing, 6(1), 61-75, 1999.

Lenzen M, Turner G M and Collins R E Thermal outgassing of vacuum glazing, Solar Journal of Vacuum Science and Technology A 17(3), 1002-1017, 1999

Lenzen M and Neugebauer H J, Measurements of radon concentration and the role of earth tides in a gypsum mine in Walferdange, Luxembourg, Solar Health Physics, 77(2), 154-162, 1999

1998

Lenzen M, Primary energy and greenhouse gases embodied in Australian final consumption: an input-output analysis, Energy Policy, 26(6), 495-506, 1998.

Murray J, Information, Communication and Technology, Cybernetics and Human Knowing, 5(2), 43-57, 1998.

Lenzen M, The energy and greenhouse gas cost of living in Australia during 1993-94, Energy, 23(6), 497-516, 1998.

Lenzen M and Neugebauer H J, Analysis of quasicontinuous radon monitor response, Health Physics, 73(5), 64-70, 1998

Dey C, Read A.J, Collins R.E and Brunotte M, A guarded cold plate apparatus for absolute measurement of heat flow, International Journal of Heat and Mass Transfer 41 (20), 3099-3108, 1998

Dey C, Simko T.M, Collins R.E and Zhang Q.C, Design and validation of guarded hot plate instruments for measuring heat flow between evacuated plane-parallel glass surfaces, Review of Scientific Instruments 69 (8), 2939-2947, 1998

1997

Lenzen M and Collins R E, Long-term field tests of vacuum glazing, Solar Energy, 61(1), 11-15, 1997.

Lenzen M and Neugebauer H J, An automatic radon sensor for borehole measurements, Review of Scientific Instruments, 68(7), 2898-2903, 1997

Zhang Q.C, Simko T.M, Dey C, Collins R.E, Turner G.M, Brunotte M and Gombert A, The Measurement and Calculation of Radiative Heat Transfer between Uncoated and Doped Tin Oxide Coated Glass Surfaces, International Journal of Heat and Mass Transfer, 40(1), 61-71, 1997

Books and Book Chapters

TOP

2012

Murray J, Cawthorne G, Dey C and Andrew C, Enough for All Forever: A Handbook for Learning about Sustainability, Common Ground, Urbana-Champaign, USA, 2012.

Wiedmann T, Dey C and Lenzen M, Shared responsibility in Triple Bottom Line Accounting, In: Murray J, Cawthorne G, Dey C and Andrew C: Enough for all forever: a handbook for learning about sustainability. Common Ground, Urbana-Champaign, USA, 2012.

Wiedenhofer D, Lenzen M and Steinberger J K, Spatial and socioeconomic drivers of direct and indirect household energy consumption in Australia, In: Newton P: Urban Consumption, 251-266, CSIRO Publishing, Collingwood, Victoria, Australia, 2011, http://www.publish.csiro.au/nid/18/pid/6472.htm.

2011

Wiedmann T, Wood R, Barrett J and Lenzen M, Spatial and socioeconomic drivers of direct and indirect household energy consumption in Australia, In: Newton P: Urban Consumption, 251-266, CSIRO Publishing, Collingwood, Victoria, Australia, 2011, http://www.publish.csiro.au/nid/18/pid/6472.htm.

Sathaye J, Lucon O, Rahman A, Christensen J, Denton F, Fujino J, Heath G, Mirza M, Rudnick H, Schlaepfer A, Shmakin A, Angerer G, Bauer C, Bazilian M, Brecha R, Burgherr P, Clarke L, Creutzig F, Edmonds J, Hagel�ken C, Hansen G, Hultman N, Jakob M, Kadner S, Lenzen M, Macknick J, Masanet E, Nagai Y, Olhoff A, Olsen K, Pahle M, Rabl A, Richels R, Roy J, von Stechow C, Steckel J, Warner E, Wilbanks T, Zhang Y, Renewable Energy in the Context of Sustainable Development, In: IPCC Working Group III: Special Report on Renewable Energy Sources and Climate Change Mitigation, IPCC, Potsdam, Germany, 2011, http://srren.ipcc-wg3.de/report/IPCC_SRREN_Ch09.

Wiedmann T, Wood R, Barrett J and Lenzen M, The Ecological Footprint of Consumption: Spatial and Sectoral Context, In: Newton P: Consumption in a Growing and Urbanising World, CSIRO Publishing, 2011.

Murray J, Principles of learning. In: N Seel (Editor-in-chief): Encyclopedia of the Sciences of Learning, Springer Verlag, 2011

Yu T, Lenzen M and Dey C, Large-Scale Computational Modeling for Environmental Impact Assessment. In: Olej V, Obr��lov� I and Krupka J: Environmental Modeling for Sustainable Regional Development: System Approaches and Advanced Methods, 1-17, IGI Global, Hershey, USA, 2011.

2010

Murray J and Wood R (Eds), The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Murray J and Lenzen M, Introduction to input-output analysis. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Murray J, Wood R and Lenzen M, Input-output analysis: strengths and limitations. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Dey C, Volotovsky S and Humphries R, The carbon footprint of the Water Corporation of Western Australia. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Dickson A, Dey C and Murray C, The University of Sydney ISA Software Tool. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Murray J and Lenzen M, The responsibility game. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

Murray J and Lenzen M, The input-output game. In: Murray J and Wood R: The Sustainability Practitioner’s Guide to Input-Output Analysis, CommonGround, Illinois, USA, 2010

2009

Wiedmann T and Lenzen M, Unravelling the Impacts of Supply Chains – A New Triple-Bottom-Line Accounting Approach and Software Tool. In: Schaltegger S, Bennett M, Burritt R L and Jasch C: Environmental Management Accounting for Cleaner Production, 65-90, Springer, Heidelberg, Germany, 2009

Wood R and Lenzen M, Principal methodological approaches to studying sustainable consumption: Scenario Analysis, Ecological Footprints and Structural Decomposition Analysis. In: Suh S, Handbook on Input-Output Economics for Industrial Ecology, Springer, Heidelberg, Germany, 2009

Murray J, Rash J-L, Creaton R, Cooley P and McClelland D, Views from the inside: Participant Perspectives on Community Leadership. CommonGround Publishing Pty Ltd., Victoria, in press, 2009

Gallego B and Lenzen M, Estimating generalized regional input-output systems: a case study of Australia. In: Ruth M and Davidsdottir B, The Dynamics Of Regions And Networks In Industrial Ecosystems, Edward Elgar Publishing, Cheltenham, Northampton, MA, 2009

2008

Lenzen M, Wood R and Foran B, Direct versus embodied energy � the need for urban lifestyle transitions. In: Droege P, Urban Energy Transition, 91-120, Elsevier, 2008

Lenzen M and Lundie S, Quantitative Nachhaltigkeitsberichterstattung ‘ohne Systemgrenzen’. In: Isenmann R and Marx-Gomez J: Internetbasierte Nachhaltigkeitsberichterstattung – Maßgeschneiderte Stakeholderkommunikation mit IT, Erich Schmidt Verlag, Berlin, Germany, in press, 2008

2007

Dey C, Berger C, Foran B, Foran M, Joske R, Lenzen M and Wood R, An Australian environmental atlas: household environmental pressure from consumption. In: Birch G, Water, Wind, Art and Debate: how environmental concerns impact on disciplinary research, 280-315, Sydney University Press, 2007

2006

Turbill J and Murray J, Early Literacy and New Technology in Australian Schools: Policy, Research and Practice. In: M C McKenna, L D Labbo, R D Kieffer, and D Reinking (Eds.) International Handbook of Literacy and Technology, Lawrence Erlbaum Associates, Inc. New Jersey, 2006

Lenzen M and Maganov P, How many light globes does it take to change a footprint? In: Mander U, Brebbia C A, and Tiezzi E, The Sustainable City IV: Urban Regeneration and Sustainability, 229-238, WIT Press United Kingdom, 2006.

2003

 Lenzen M, Dey C and Hamilton C, Climate Change. In: Hensher D A and� Button K J, Handbook of Transport & the Environment, Handbooks in Transport: Volume 4, Volume 4, 37-60, http:// www.elsevier.com/inca/publications/store/6/7/2/7/4/8/, Elsevier, Amsterdam, Netherlands, 2003.

2001

Lenzen M, Uncertainty in IO-based LCI. In Weidema B P and Nielsen A M (Eds.), Input/Output analysis � Shortcuts to life cycle data?, Environmental Project No. 581, Milj�styrelsen, 17-27, Ministry for Environment and Energy, Copenhagen, Denmark, 2001.

Mills D. R and Dey C, Development Strategies for Solar Thermal Electricity Generation,Advances in Solar Energy: an annual review of research and development, Vol 14, D. Yogi Goswami (Ed.), 401-423, 2001

Mills D. R and Dey C, Renewable Energy Technology Mix for Atmospheric Carbon Dioxide Stabilisation by 2050, Advances in Solar Energy: an annual review of research and development, Vol 14, D. Yogi Goswami (Ed.), 385-400, 2001

2000

Murray J, Computer technology and teacher development: A program to support pedagogical change. In: Watson, D and Downes, T (Eds.) Communications and Networking in Education: Learning in a Networked Society, Kluwer Academic, Boston, 2000.

1999

Lenzen M and Braoudakis G, Scintillation Counters. In Encyclopedia of Electrical and Electronics Engineering, Vol. 18, 718-730, John Wiley & Sons, New York, USA, 1999.

Conference Papers

2012

Murray J, McClelland D, Creaton R, Rash J-L, Stakeholder Voices: turning the Responsibility pyramid upside, 2012 ALARA Australasian Conference Sydney Australia, 2012.

Lenzen M, Geschke A, Kanemoto K, and Moran D, Building Eora: a Global Multi-Region Input Output Model at high country and sector detail, 20th International Input-Output Conference, Bratislava, Slovakia, 2012.

Wiedmann T, Geschke A, and Lenzen M, Input-Output scenario analysis � using constraint optimization to integrate dynamic model outputs, 20th International Input-Output Conference, Bratislava, Slovakia, 2012.

Lenzen M, Bekchanov M, Bhaduri A, Geschke A, Kanemoto K, and Moran D, The role of regional aggregation and scarcity weighting in the analysis of global virtual water flows, 20th International Input-Output Conference, Bratislava, Slovakia, 2012.

Bekchanov M, Bhaduri A, and Lenzen M, Virtual water concept for economic and ecological restructuring: evidence from Uzbekistan, Central Asia, 20th International Input-Output Conference, Bratislava, Slovakia, 2012.

Kanemoto K, Lenzen M, Moran D, and Geschke A, Construction and applications of global multi-region input-output table, Annual Meeting of Society for Environmental Economics and Policy Studies, Sendai, Japan, 2012.

Kanemoto K, Lenzen M, Moran D, and Geschke A, Mapping the structure of the world economy, 23rd Annual Conference of the Pan Pacific Association of Input-Output Studies, Osaka, Japan, 2012.

Kanemoto K, Moran D, Lenzen M and Geschke A, MRIO and carbon footprint results, 19th International Conference on EcoBalance, Yokohama, Japan, November 2012.

2011

Moran D, Geschke A, Kanemoto K. Lenzen M, The global carbon footprint of consumption: Findings from the Eora model, 19th International Input-Output Conference, Alexandria, USA, June 2011.

Geschke A, Lenzen M, Kanemoto K, Moran D, AISHA: A tool to construct a series of contingency tables, 19th International Input-Output Conference, Alexandria, VA, USA, June 2011.

Zhou X, Shirakawa H, and Lenzen M, Aggregation effect in carbon footprint accounting by the Multi-Region Input-Output model, 19th International Input-Output Conference, Washington, USA, June 2011.

Kanemoto K, Lenzen M, Geschke A, and Moran D, Construction and application of global multi-region input-output model, 6th Meeting of the Institute of Life Cycle Assessment, Sendai, Japan, March 2011.

2010

Wiedmann T, Lenzen M, Feng K and Barrett J, Hybrid methods for incorporating changes in energy technologies in an input-output framework, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

Lenzen M, Wisniowski S, Howes T, Murray J, Dey C, Schofield L, Barton G, Taylor D, Benrimoj C and Kotic B, Input-output analysis for business planning: A case study of the University of Sydney, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

McBain B and Lenzen M, How do we manage our local environment in the face of global uncertainty and complexity?, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

Kanemoto K, Geschke A, Moran D, Ugon J, Lenzen M, Mu�oz P, and Yu T, A time series of global carbon footprints at high country and sector detail, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

Lenzen M, Geschke A, Moran D, Ugon J, Kanemoto K, Mu�oz P, Wood R, and Yu T, A global multi-region input-output time series at high country and sector detail, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

Wiedmann T, Barrett J, Feng K, and Lenzen M, Hybrid methods for incorporating changes in energy technologies in an input-output framework, 18th International Input-Output Conference, Sydney, Australia, 20-25 June 2010.

2009

Kaur R and Dey D, Short-haul flights and climate change: what are the effects and potential alternatives?, International Conference on Transport, Atmosphere and Climate, Aachen, DE and Maastricht, NL, 22-25 June 2009

Lenzen M, Shared producer and consumer responsibility for emissions embodied in multi-regional trade, Institute for Global Environmental Strategies (IGES) International Forum on Sustainable Asia and the Pacific, Shonan, Japan, 26-27 June 2009

Yu T and Lenzen M, An Intelligent System for Estimating a Large-size Matrix in Environmental Accounting, 23rd European Conference on Operational Research, Bonn, Germany, 5-8 July 2009

Rosenbaum R, Ciroth A, Freire F, Heijungs R, Hong J, Jolliet O, Lenzen M, and McKone T, Towards consistent management of uncertainties in Life Cycle Assessment, 23rd European Conference on Operational Research, Bonn, Germany, 5-8 July 2009

Lenzen M, Wood R, and Wiedmann T, The UK carbon footprint – an example for handling uncertainty in input-output LCA, 23rd European Conference on Operational Research, Bonn, Germany, 5-8 July 2009

2007

Wiedmann T, Wood R, Lenzen M, Harris R, Guan D and Minx J, Application of a novel matrix balancing approach to the estimation of UK input-output tables, Sixteenth International Input-Output Conference , Istanbul, Turkey, 2-6 July 2007. Download paper

Wiedmann T, Wood R, Lenzen M, Tovey J and Moloney S, Modelling Ecological Footprints for sub-regional Levels: A Detailed Footprint of Consumption in Melbourne and Local Areas of Victoria, Second International Ecological Footprint Conference, Cardiff, UK, 8-10 May 2007. Download paper

Wiedmann T, Barrett J and Lenzen M, Companies on the Scale:�Comparing and Benchmarking the Footprints of Businesses, Second International Ecological Footprint Conference, Cardiff, UK, 8-10 May 2007. Download paper

Wiedmann T, Lenzen M, Turner K, Minx J and Barrett J, Multiregional Input-Output Modelling Opens New Opportunities for the Estimation of Ecological Footprints Embedded in International Trade, Second International Ecological Footprint Conference, Cardiff, UK, 8-10 May 2007. Download paper

2006

Wood R, A material history of Australia: structural decomposition of material flows. International Society for Ecological Economics, New Delhi, India, 2006.

Wood R, Structural decomposition of Australia’s Greenhouse Emissions. International Society for Ecological Economics, New Delhi, India, 2006.

Lenzen M, Dey C, Foran B, Gallego B, Murray J, Ward C, Wood R, Blackman E, Cole J, Sack F and Wiedmann T, Triple-Bottom-Line Accounting of Society, Economy and Environment � a new life-cycle software for business, 5th Australian Conference on Life-Cycle Assessment, Melbourne, 22-24 November 2006.

Wiedmann T and Lenzen M, Triple-Bottom-Line Accounting of Social, Economic and Environmental Indicators – A New Life-Cycle Software Tool for UK Businesses, Sustainability � Creating the Culture: Third Annual International Sustainable Development Conference , Perth, Scotland, 15-16 November 2006. Download paper or download presentation

Wiedmann T and Lenzen M, Sharing Responsibility along Supply Chains – A New Life-Cycle Approach and Software Tool for Triple-Bottom-Line Accounting, The Corporate Responsibility Research Conference 2006 , Trinity College, Dublin, Ireland, 4-5 September 2006. Download paper or download presentation

Lenzen M, Foran B and Dey C, Sustainability Accounting for business – a new international software based on input-output tables, Intermediate Input-Output Meetings 2006 on Sustainability, Trade and Productivity, Sendai, Japan, 26-28 July 2006. Download paper

Lenzen M, Wood R and Gallego B, RAS matrix balancing under conflicting information, Intermediate Input-Output Meetings 2006 on Sustainability, Trade and Productivity, Sendai, Japan, 26-28 July 2006.

Lenzen M and Maganov P, How many light globes does it take to change a footprint?, European Sustainable Cities Conference, Tallinn, Estonia, 17-19 July 2006.

Lenzen M, Foran B and Dey C, Input-Output-Analysis and Triple Bottom Line Accounting � a new software for business and government, 2nd International Conference on Quantified Eco-Efficiency for Sustainability, Egmond aan Zee, Netherlands, 28-30 June 2006.

Wiedmann T and Lenzen M, Ecological Footprints for business and government � a new software based on Input-Output Analysis, First Global Footprint Forum 2006, Colle Val d�Elsa and Siena, Italy, 14-17 June 2006.

Lenzen M, Foran B and Dey C, Triple Bottom Line Accounting � a new software and application to Australian mining, Workshop on Material Flows and Environmental Impacts behind International Trade of Japan, Akihabara Convention Hall, Sotokanda, Chiyoda-ku, Tokyo, Japan, 2006.

Lenzen M, Foran B and Dey C, Triple Bottom Line Accounting of economy and environment, International Symposium for Interactive Analysis of Economy and Environment, Japan Research Institute under the auspices of the Cabinet Office of the Government of Japan, Kasumigaseki, Tokyo, Japan, 2006.

2005

Wood, R, Structural Determinants for Change in Australias Greenhouse History. Environmental Research Event, Hobart, Tasmania, 2005.

Lenzen M, Regional socio-economic and environmental impact modeling, 7th International Conference of the Russian Society for Ecological Economics, St Petersburg, Russia , 2005.

Lenzen M, Australia�s Water Accounts � Structure and Applications, 15th International Conference on Input-Output Techniques, Beijing, China, 2005.

Murray J, Second Order Cybernetics as a framework for examining learning, Higher Education Research and Development Society of Australasia (HERDSA), Sydney, 6-9 July 2005.

Gallego B and Lenzen M, Shared producer and consumer responsibility, 15th International Conference on Input-Output Techniques, Beijing, China, 2005.

Lenzen M, Gallego B, Wood R, Matrix balancing under conflicting information, 15th International Conference on Input-Output Techniques, Beijing, China, 2005.

Wood R, Lenzen M, Dey C and Murray S, Historical accountability and cumulative impacts: the treatment of time in corporate sustainability reporting, ISIE Industrial Ecology 2005 Conference, Stockholm, Sweden, 2005.

Foran B, Lenzen M and Dey C, Triple Bottom Line Accounting for Australia, ISIE Industrial Ecology 2005 Conference, Stockholm, Sweden, 2005.

Lenzen M, Gallego B, Lundie S, and Sack F, A Regional Environmental Impact Model for Australia, ISIE Industrial Ecology 2005 Conference, Stockholm, Sweden, 2005.

Lundie S and Lenzen M, Sustainable consumption � Australian case studies, ISIE Industrial Ecology 2005 Conference, Stockholm, Sweden, 2005.

Lenzen M and Wachsmann U, Wind energy converters in Brazil and Germany: an example for geographical variability in LCA, 4th National Conference on Life-Cycle Assessment, Sydney, Australia, 2005.

Lundie S and Lenzen M, The role of the ecological footprint method in policy planning. 4th National Conference on Life-Cycle Assessment, Sydney, Australia , 2005

Tsukahara S, Lenzen M, Matsuhashi R and Yoshida Y, Optimisation of target of the Japanese political institutions for supporting CDM projects considering host countries� interests in sustainability, 21st Conference on Energy, Economy, and Environment, Tokyo, Japan, 2005

Yin Y, Chalhovb, Zhang L, Scott D, Lin W, Summers N, Dey C, Buie D, and Vodenitcharova T, Evacuated non-tubular solar thermal collectors, 43rd Australian & New Zealand Solar Energy Society Conference, Dunedin, New Zealand, 28-30 November 2005 (refereed)

Buie D, Ekins-Daukes N.J, Imenes A.G, Dey C, Proschek M, Royne A, McKenzie D, Boreland M and Bosi C.G, Combining the Tools for Solar Thermal and Photovoltaic Power Generation – Experimental and Computational Facilities at the University of Sydney, International Conference on Solar Concentrators for the Generation of Electricity or Hydrogen, Scottsdale, Arizona, USA,1-5 May 2005

Rahman N, Drynan R and Dey C, Determining the least cost way of meeting Australia’s renewable energy target, 49th Annual Australian Agricultural and Resource Economics Society (AARES) Conference, 9–11 February, 2005

2004

Foran B, Lenzen M and Dey C, Using input-output analysis to develop �Triple Bottom Line Accounts� for the Australian economy, IV International Biennial Workshop on Advances in Energy Studies, Energy-Ecology Issues in Latin America, State University of Campinas, Campinas, SP, Brazil, 16-19 June 2004

Royne A, Dey C and Mills D, Cooling of photovoltaic cells under concentrated illumination: a review, EuroSun 2004, Freiburg, Germany, 2004

Royne A and Dey C, Experimental study of a jet impingement device for cooling of photovoltaic cells under high concentration, ANZSES Solar 2004 – Life, the Universe and Renewables, Perth, Australia, 2004

Lenzen M and Treloar G, Endogenising capital – a comparison of two methods, Journal of Applied Input-Output Analysis 10, 1-11, 2004

2003

Lenzen M and Murray S A, The ecological footprint � issues and trends, International Sustainability Conference, Fremantle, Western Australia, 2003.

Lenzen M, Research on sustainable consumption using input-output analysis, 1st International Workshop on Sustainable Consumption, AIST/SNTT, Ichigaya, Tokyo, Japan, 2003.

Davies O, and Murray J, Making an Impact on Literacy Outcomes in Isolated Schools: The Log on to Literacy Evaluation, International Congress of School Evaluation and Improvement, Sydney, 5-8 Jan 2003.

Wier M, Munksgaard J, Christoffersen L B, Jensen T S, Pedersen O G, Keiding H and Lenzen M, Environmental performance indices, family types and consumption pattern – an integrated model study using DEA analysis, Ecosystems and Sustainable Development, Siena, Italy, 2003, Internet site http://www.wessex.ac.uk/conferences/2003/ecosud03/eco03fp.pdf

Lum Mow V, and Murray J, Teachers Conquering the ICT Challenge with Technology in Learning and Teaching (TILT) Programs: A Six-Year Study, International Congress of School Evaluation and Improvement, Sydney, 5-8 Jan 2003.

Murray J, A Learning Organisation with 25,000 Members? Or 25,000 Learners Doing Their Thing? A Four Year Investigation into the Nature of Individual Teacher Learning in the Context of the Large Scale Technology in Learning and Teaching (TILT) Program Research, International Congress of School Evaluation and Improvement, Sydney, 5-8 Jan 2003

2002

Murray S A and Lenzen M, Improvements to the Ecological Footprint, Invited Plenary Presentation, ANZSEE 2002 Conference on Ecologically Sustainable Development, University of Technology, Sydney, Australia, 2002, Internet site http://incres.anu.edu.au/anzsee/abstracts27-11-02.doc.

Lundie S, Lenzen M, Bransgrove G, Charet L and Sack F, Assessing the ecological footprint based on input-output analysis of a large metropolitan water supplier � lessons for water management and planning towards sustainability, 14th International Conference on Input-Output Techniques, Universit� du Qu�bec � Montr�al, Montr�al, Canada, 2002, Internet site http://www.io2002conference.uqam.ca/english/frameset/fs_conf_papers.html

Murray, J. The Impact of ICTs on Educational Institutions: Six-year Study of ICT and Institutional Change, XVth World Congress of the International Sociological Association, Brisbane, 8-13 July, 2002.

Treloar G J, Lenzen M, Suh S, Crawford R, Hondo H, Huppes G, Jolliet O, Krewitt W, Moriguchi Y, Munksgaard J and Norris G, System boundary selection in Life Cycle Inventory, SETAC Europe Annual Meeting, Vienna, Austria, 2002.

Wood R and Lenzen M, Institutional ecological footprinting, Second Annual Conference of Sustainable Universities “Windows to a Greener Campus�, The University of Melbourne, RMIT and Monash University, Melbourne, Australia, 2002, Internet site http://www.mei.monash.edu.au/conference/ConfPapers.html

Munksgaard J, Wier M, Lenzen M and Dey C, Indicators for the environmental pressure of consumption, Life-cycle Approaches to Sustainable Consumption, International Institute for Applied Systems Analysis, Laxenburg, Austria, 2002, Internet site http://www.iiasa.ac.at/cgi-bin/pubsrch?IR02073

Lenzen M, Pade L-L and Munksgaard J, CO2 multipliers in multi-region input-output models, 14th International Conference on Input-Output Techniques, Universit� du Qu�bec � Montr�al, Montr�al, Canada, 2002, Internet site http://www.io2002conference.uqam.ca/ english/frameset/fs_conf_papers.html

Mills D. R, Schramek P, Dey C, Buie D, Imenes A.G, Haynes B.S and Morrison G. L, Multi Tower Solar Array Project, ANZSES Solar 2002 Conference, Newcastle, November 2002

Imenes A, Dey C, Mills D, Buie D and Bosi S, A small paraboloidal concentrator for material testing and absorber performance characterisation, 11th SolarPACES International Symposium on Concentrated Solar Power and Chemical Energy Technologies, Zurich, Switzerland, September 2002, pp 213-219

Buie D, Dey C and Mills D, Optical considerations in line focus Fresnel concentrators, 11th SolarPACES International Symposium on Concentrated Solar Power and Chemical Energy Technologies, Zurich, Switzerland, September 2002, pp 197-203

Mills D, Schramek P, Morrison G, Haynes B.S, Dey C, Buie D and Imenes A, MTSA Prototype Array Project, 11th SolarPACES International Symposium on Concentrated Solar Power and Chemical Energy Technologies, Zurich, Switzerland, September 2002, pp 109-115

Ng N, Collins R E and Lenzen M, Bakeable, all-metal demountable vacuum seal to a flat glass surface, Journal of Vacuum Science and Technology A, 20 (4), 1384-1389, 2002

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2001

Cohen, C, Lenzen M and Schaeffer R, Energy consumption and carbon emissions from household expenditures in Brazil, Brazil � U.S. Economic and Environmental Modeling Workshop, Rio de Janeiro, Brazil, 2001, Internet site http://www.pnl.gov/aisu/pubs/AppC12-RS.pdf

Lenzen M, Dey C and Murray J, Teaching equity and sustainability in the context of climate change – a personal approach, Showcase of Excellence in Teaching at the University of Sydney � Scholarly Inquiry in Teaching & Learning, Sydney, Australia, 2001

Dey C, Heat transfer aspects of an elevated linear absorber, ISES 2001 Solar World Congress, Adelaide, November 2001

Bosi S. G, Bittar A, Zhang Q-C, Dey C, Mercier V and Mills D. R, Age Testing of Solar Selective Surfaces on Flat-Plates at 150 °C and 300 °C in Air, ISES 2001 Solar World Congress, Adelaide, November 2001

McKenzie D R, Lenzen M and Solomon S B, The correlation between exhalation from rocks and indoor concentration of 222Rn in the Sydney area, Radiation Protection in Australasia 18 (1), 2-7, 2001

2000

Lenzen M, Life-cycle assessment of Australian transport. 2nd National Conference on Life Cycle Assessment, Royal Melbourne Institute of Technology, Melbourne, Australia, 2000, Internet site http://lca-conf.rmit.edu.au/Papers.html

Dey C and Lenzen M, Greenhouse gas analysis of electricity generation systems. ANZSES Solar 2000 Conference, Griffith University, Brisbane, Australia, 2000.

Wier M, Lenzen M, Munksgaard J and Smed S, Linking environmental effects to consumption pattern and lifestyle � an integrated model study. XIII International Conference on Input-Output Techniques, Macerata, Italy, 2000, Internet site http://policy.rutgers.edu/cupr/iioa/WierLenzenMunksgaard&Smed_LifestyleEnviroEffects.pdf

Lenzen M, Uncertainty analysis for input-output-based life-cycle inventories. Workshop on Life-Cycle Assessment and Input-Output Analysis, Copenhagen, Denmark, 2000, Internet site http://www.mst.dk/udgiv/publications/2001/87-7944-365-6/html/

Mills D. R and Dey C, Appropriate market strategy for solar thermal electricity, Keynote address, ANZSES Solar 2000 Conference, Griffith University, Queensland, 29 Nov – 1 Dec 2000

Dey C, Mills D. R and Morrison G. L, Operation of a CLFR research apparatus, ANZSES Solar 2000 Conference, Griffith University, Queensland, 29 Nov – 1 Dec 2000

Mills D. R, Dey C and Morrison G. L, Stanwell solar power station project, EuroSun 2000 Conference, Copenhagen, Denmark, 19-22 June, 2000

Lenzen M and Collins R E, Hermetic Indium metal-to-glass-tube seal, Journal of Vacuum Science and Technology A 18(2), 552-553, 2000

Collins R E, Lenzen M and Ng N, Evacuating flat glass panels, Journal of Vacuum Science and Technology A 18 (3), 1035-1037, 2000

1999

Murray J, Computer Technology and Teacher Development: A program to support pedagogical change, Communication and Networking in Education: Learning in a networked society, International Federation of Information Processing (IFIP), Hameenlinna, Finland, 13-18 June, 1999

Mills D. R and Dey C, Transition strategies for solar thermal power generation, ISES Solar World Congress, Jerusalem, Israel, 4-9 July 1999 ��������������

�1998

Murray J, Computer Technology and Teacher Development: A systems perspective on pedagogical change, Creative Systems Practice, Australia New Zealand Systems (ANZSYS), Sydney, 7-10 October, 1998.

1997

Lenzen M, International equity and greenhouse gas emissions. Environmental Justice, Papers from the Melbourne Conference, The University of Melbourne, Australia, 1997

Books @ ISA

Highlight: Urban Energy Transition

A new book on energy challenges for 21st-century cities

Featuring a chapter by ISA’s Manfred Lenzen, Barney Foran and Richard Wood on Urban Lifestyle Transitions.

As people flock to the cities in search of opportunities, and societies become more urbanised, they also become more affluent, and their energy systems more efficient. At the same time the demands of people for material wealth, comfort and convenience increase rapidly, causing the increase of industrial energy demand, which in turn often outstrips all energy efficiency gains. Generally the cities are the places where money is made, and which become the home of the wealthy, while the countryside is the place where resources are taken. Urban centres thus become sinks of rural resources and energy.

This book shows that many growing urban metropolises are reaching their limits of domestic resource availability or environmental pollution, while at the same time further efficiency improvements become costly. By increasingly drawing on cheap resources and energy beyond their borders, facilitated by an increasingly globalised international trade, they export their environmental pressure into resource-rich, but often technology-poor, low-wage regions. The domestic resource hinterland turns into the global resource hinterland.

Urban Energy Transition is a compendium of 28 chapters, presenting perspectives that are both local and international in scope and relevance: views from 18 countries in both the developed and developing world. As a cross-disciplinary survey this volume covers diverse urban topics, including: carbon emissions policy and practice; the role of embodied energy; urban thermal performance planning; building efficiency services; energy poverty alleviation efforts; renewable community support networks; aspects of household level bio-fuel markets; urban renewable energy legislation, programs and incentives; innovations in individual transport systems; global urban mobility trends; implications of intelligent energy networks and distributed energy supply and storage; and the case for new regional monetary systems and lifestyles.

Hardcover ISBN: 9780080453415

Check out other book chapters by the ISA team.