The Natural Edge Project Cents and Sustainability Whole System Design The Natural Advantage of Nations


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Andrew Higham, Policy Officer, WA Department of Premier and Cabinet





 Embedding Sustainable Development within Engineering Education

 
TNEP Secretariat member Cheryl Desha (formerly Paten) started her PhD in 2006 with Griffith University, under the supervision of Professor David Thiel (GU), Professor Neil Dempster (GU), Professor John Fien, and Mr Charlie Hargroves.
 
 

Thesis Title

‘How can embedding sustainability within engineering degree programs be accelerated, to better equip graduate engineers globally with the knowledge and skills to contribute to sustainable development?’

Research Abstract

This thesis is premised on the emerging consensus that engineering curriculum in higher education needs a transformation, to equip graduates with adequate knowledge and skills to rapidly transition society to sustainable development. The thesis question asks how the process of embedding sustainability within engineering education can be accelerated and proposes to develop a framework for curriculum renewal in engineering education for sustainable development. The framework will draw on findings from a review of literature, questionnaire data, case study analysis of curriculum renewal mechanisms in other disciplines, and case study reflection on the candidate’s experiences in her role as the Education Coordinator for The Natural Edge Project (TNEP). It is proposed that the draft framework will then be critiqued through survey and focus interviews with selected participants in the field. Findings will be used to further inform the development of the framework. The Candidate invites input from supervisors and advisors with regard to the thesis proposal, proposed methodology and national and international connections that could further inform the thesis.

This research will form the basis together with contributions from TNEP and select authors, for a special edition of the ‘International Journal of Sustainability in Higher Education’ (Emerald) in September 2008, on the topic of ‘State of Education for Sustainable Development: Embedding Sustainability into Engineering Education’. The special edition is being coordinated by TNEP, in a collaborative engagement with colleagues from organisations including the World Federation of Engineering Organisations (WFEO), UNESCO, the Alliance for Global Sustainability (AGS), the World Technopolis Association, the US Partnership for the Decade of Education for Sustainable Development (USDESD), the International Universities Association (IUA), Engineers Australia, and the Society of Sustainability and Environmental Engineering. It will also involve input from a number of Australian and International University engineering department colleagues.

Rearch Overview

This research question contains a number of presumptions that need to be qualified in the thesis introduction and literature review. These are listed as the following sub-statements and are addressed in the following section:

1. Sustainable development is the preferred end-goal for society globally.

2. Delivering sustainable development requires some level of contribution by engineers.

3. Knowledge and skills about sustainable development need to be developed during undergraduate years.

4. Every engineering degree already has some level of sustainability content within it, which provides some knowledge and skills to address sustainable development challenges, but this knowledge and skill set needs improving.

5. The process of ‘embedding’ sustainability into curriculum will improve this knowledge and skill set.

6. Accelerating this process will lead to engineering graduates who are better equipped to address these global environmental challenges.

Field of Research

The proposed field for this thesis is in Curriculum Theory, as a subset of Educational Theory. Specifically, the thesis sits within the theoretical area of Curriculum Renewal in Higher Education, which asks how the process of embedding (or integrating broadly and deeply) new concepts and content into existing higher education curriculum can be accelerated anywhere in the world, to achieve a rapid shift in student learning outcomes to meet a revised set of requirements.

Gordon and Lawton remarked in the late 1970s that curriculum, ‘has now become a central feature of arguments about the kind of society we want and the kind of educational system necessary for that society’ (Gordon and Lawton 1978). According to Brownell and Scarino almost 20 years later, ‘education systems are inevitably entwined with the social, cultural, intellectual, communicative, economic, political, scientific and technological systems that are at work in the world and in communities within it. In recent years all of these systems have undergone profound and rapid change, and education systems have had to respond to this in order to ensure a future in which the quality of life of each community can be maintained and further developed’ (Brownell and Scarino 1993).

Drawing on the strong links between higher education and its ability to shape society, this thesis uses the theoretical framework of Curriculum Renewal in Higher Education in the professional discipline of engineering education. It examines how the process of embedding sustainability as an emerging concept and with defined content and new design performance criteria, can be accelerated within existing engineering curriculum anywhere in the world, to rapidly shift or ‘transition’ the knowledge and skill-set of graduating engineers to be able to contribute to sustainable development (ie ‘engineering education for sustainable development’). It uses a new term to describe this area of theory, called ‘rapid curriculum renewal’. Hence, the thesis could be summarised as ‘facilitating rapid curriculum renewal in engineering education through developing a framework for transitioning to education for sustainable development’.

Context of Research Field

There are a number of well documented examples in recent history, where societal ‘development' has involved significant risk denial; of poverty in the 1950s, of causes of HIV transmission in the 1960s, of smoking being harmful in the 1970s, and of negative impacts to our planet's biosphere from the scale of industrial pollution, from the 1980s through to the beginning of the 21 st Century. Dealing with risk is something that all human civilisations have previously faced; some survived and some did not. An historical consideration of civilisations past (Diamond 2005) clearly shows that humanity takes time to acknowledge, accept and then deal with issues that have significant ramifications on daily life, particularly those issues that seem to strike at the core of our values and sense of self.

Since the launch of former US Vice President Al Gore's film An Inconvenient Truth (Gore 2006) , the UK Stern Review (Stern 2006) , and various reports from the International Panel on Climate Change (IPCC), there is now unprecedented global discussion on how to achieve significant reductions to greenhouse gas emissions while meeting the escalating demand for energy, food, water, and goods and services. Even the recent release of a range of sceptical documentaries and publications have been systematically shown to be misleading in methodology and information and incorrect in conclusions, potentially biased by affiliations and ties to sources of economic benefit.

The 2007 launch of the IPCC's Fourth Assessment Report in April (IPCC 2007) effectively ended debate concerning key aspects of the science of climate change providing an ‘unequivocal' link between climate change and current human activities, especially the burning of fossil fuels, deforestation and land clearing, the use of synthetic greenhouse gases, and decomposition of wastes from landfill. James Hansen from NASA, one of the world's leading scientists and members of the IPCC states, ‘ The question is, what is the level of global warming that would constitute dangerous climate change? We wrote an article in about the year 2000 in which we argued that 1 degree Celsius additional warming might be OK, but 2 or 3 degrees is not. But what's now become clear is that maybe 1 degree Celsius [additional to 2000] is dangerous, because already we're seeing on West Antarctica a net loss of ice and the ocean is warming and it is beginning to melt the ice shelves. The other change that has occurred, as many people predicted, is that China and India , the developing world, have increased their emissions at a significant rate in the last decade. So it really is becoming more urgent ' (Hansen 2006) .

The report warned that if no action was taken, climate change would affect Australia in a number of significant ways including intensification of water security problems by 2030 in southern and eastern Australia from reduced precipitation and increased evaporation. Significant loss of biodiversity is projected to occur by 2020 in some ecologically-rich sites including the Great Barrier Reef and Queensland Wet Tropics, with Kakadu wetlands, south-west Australia , and alpine areas also at risk. Ongoing coastal development and population growth in areas such as Cairns and Southeast Queensland are also projected to exacerbate risks from sea-level rise and increases in the severity and frequency of storms and coastal flooding by 2050. Agriculture and forestry production is projected to decline over much of southern and eastern Australia by 2030, due to increased drought and fire. The IPCC report concludes (emphasis added), ‘[ Australia has ] substantial adaptive capacity due to well-developed economies and scientific and technical capabilities, but there are considerable constraints to implementation and major challenges from changes in extreme events. Natural systems have limited adaptive capacity'.

However, in An Inconvenient Truth , Gore cautions about human nature and its inevitable reaction when faced with the significance of the potential risk from over-pollution of our biosphere; either that of ‘denial' or ‘despair' (Gore 2006) , neither of which results in action. Although there is a rapidly emerging consensus on the issues and opportunities facing humanity in relation to climate change and sustainable development, it is important to acknowledge the need for experts in the field to provide rigorous answers for the rest of society, to questions like:

•  Is there scientific consensus on the specific pollution that would need to be targeted for reduction first to maximise the positive outcomes of our efforts, and then what should be considered next?
•  Is there scientific and engineering consensus on our capacity to target such pollution reduction with the principles, knowledge and application experience we now have or are now acquiring?
•  Is there economic and business consensus on our capacity to target reductions of specific pollutants in a manner that does not threaten our global economy?
•  Is there political consensus on our capacity to design and deliver policy and instruments to assist industry and business make the required changes without threatening the stability, security and growth of countries?
•  Is there academic consensus of our capacity to incorporate research and teaching on how to effectively target such pollution across professional and vocational education in time to actually have an impact on practice?

If it is possible to show that these answers are emerging and well established, together with providing clear and rigorous responses to the concerns of those sceptical about the need to change, then there may be the opportunity for a significant transformation of modern society. If stakeholders could be enabled to undertake the required actions in an appropriate timeframe, then the outcome might be a global community of industrialised nations that enjoy a quality of life within the earth's carrying capacity. This is an inspirational goal requiring a shift from denial and despair, to hope and action. It will require innovation and creativity with the global community working together in new ways. Such inspiration is evident in the rapid increase in interest in practical solutions from around the world over the last decade. This is expected to continue as governments, companies and institutions in Australia and around the world commit to targets of reducing emissions to the order of 60 percent by 2050 (Smith and Hargroves 2007).

The IPCC reports and the Stern Review strongly advocate a dual-track approach to dealing with climate change, comprising both mitigation and adaptation efforts; indeed much needs to be achieved through mitigation over a short span of time, to ensure that the resultant levels are something that the world can indeed adapt to. According to Hargroves (2007), ‘Inevitably society will need to adapt to a new climate regime as a result of a rapid increase in greenhouse emissions since the industrial revolution. There is a parallel and crucial requirement to focus on 1) reducing emissions of greenhouse gases and therefore stabilising the corresponding increases in global temperature; and 2) to prepare for an inevitable adaptation by society and the environment to an altered climate regime, assuming appropriate stabilisation is achieved'.

Dealing with mitigation and adaptation for climate change affects the full spectrum of professions. Consider for example the variety of skills and knowledge needed to: innovate technical solutions to greenhouse gas reductions and to redesign our built environments; to deliver sustainable food production and water supply; to implement disaster relief; to conserve biodiversity and develop plans for species preservation; to legally enforce pollution measures and to develop policy incentives for harnessing the power of the market; to manage borders and migration. Clearly, such an effort to equip society with essential knowledge and skills is an unprecedented task, in which education plays a critical role.