This document discusses the role of science in shaping Australian energy and climate change policy. It notes that while scientists have had some successes in influencing policy, such as establishing climate agencies and renewable energy targets, Australia faces challenges integrating science due to economic and political pressures. Recommendations are made to improve the science-policy relationship through clearer communication between scientists and policymakers and adopting flexible, evidence-based policymaking.
Energy based economic development - CarleyZeus Guevara
Energy-based economic development (EBED) aims to increase energy efficiency, diversify energy resources, and contribute to job creation, retention, and wealth creation in a region. EBED represents the convergence of economic development and energy planning fields by striving to homogenize separate research on the link between energy and economics. The goals of EBED include increasing energy self-sufficiency and diversification as well as economic growth and development. Potential approaches to EBED projects focus on industry development, entrepreneurship, research/innovation, workforce development, energy self-sufficiency, and diversifying energy resources and access.
This document discusses energy efficiency policies and sustainable energy. It notes that many countries are implementing energy efficiency policies to address issues like global warming and dependence on fossil fuels. Energy efficiency and renewable energy are seen as key to sustainable energy policy. The document then discusses several countries' and regions' policies around energy efficiency, greenhouse gas emissions reductions, and renewable energy development, including the European Union, China, and the United States. It also discusses the Kyoto Protocol and concepts like the environmental Kuznets curve and carbon capture and storage.
This document provides an introduction and overview of the book "Electricity reform: social and environmental challenges". It contains 11 chapters written by various contributors on topics related to power sector reform experiences in different countries and regions, and strategies for promoting social and environmental goals through electricity reform. The introduction acknowledges that while the need for electricity is important for development, the environmental implications of rising electricity consumption in developing countries requires integrating environmental and social aspects into power sector reforms. The contributors include academics and experts from organizations like the UN Environment Programme and research institutes focused on energy and environment.
An in depth analysis of the evolution of the policy mix for the sustainable e...Araz Taeihagh
This document analyzes the evolution of China's policy mix for sustainable energy transition from 1981 to 2020. It finds that over time, China has formed a complex policy mix by layering and packaging new policy instruments while calibrating existing ones. The policy mix has evolved from a few authority-based instruments in the early period to the current mix with a large density and diversity of instruments. Specifically, China has increased the policy intensity on air pollution abatement and decreased the intensity on renewable energy support. It also experiments with innovative instruments to reduce carbon emissions. The evolution features incremental changes through layering, replacement, and sequencing of policy instruments.
For the global sustainability community,
the most effective catalyst of change
has long been seen as the informed
self-interest of the mainstream financial
community: if banks and investors
could be convinced of the proximity of
environmental risk or societal impacts,
then it has been assumed that capital
diverted from ‘unsustainable’ practices
would render all other interventions
unnecessary. In practice though, the
sustainability community has found
the financial sector a hard nut to crack.
Although recent years have seen a
substantial increase in the integration of
environmental, social and governance
(ESG) data forming part of investment
analysis, the continued emphasis on shortterm
results and incentives has pushed
longer-term environmental risks, such as
climate change, outside of the boundary
of risks contemplated by mainstream
analysts. That is, until recently.
This fact sheet highlights some statistics from a report by the University of Tennessee Howard H. Baker Center for Public Policy on federal energy incentives. The report shows that federal support for solar energy is consistent with support for traditional energy sources.
INFLUENCES OF POLICIES ON HOUSING SUSTAINABILITY: CASE OF A DEVELOPED COUNTRYDr Renuka Thakore
This paper explores influences of housing policies on housing sustainability, including multi-level
transition process for housing energy efficiency. Important structural barriers experienced by housing
stakeholders in implementing essential conditions for housing energy efficiency; and changes critical for
strategic performance of housing sector are discussed. A mixed methodology was used to identify effects on the
England housing organisaiton’s operational capabilities. The important barriers were evaluated by a survey
distributed to the stakeholders throughout the England demographics; and housing experts were employed
through Delphi method to highlight strategic capabilities required by the organisations to optimise their
performance for energy efficiency. The findings were used to develop a conceptual model for “improved energy
efficiency” for sustainable housing which explicitly embodies essential conditions, important structural barriers
and stakeholders’ perspective into one congruent relationship model.
ACEEE Presentation to PA Climate Change Advisory Committee Jan. 2017Annie Gilleo
Presentation by Annie Gilleo, Meegan Kelly, and Cassandra Kubes to the CCAC focused on the state's current Climate Action Plan and opportunities to further reduce emissions using energy efficiency.
Energy based economic development - CarleyZeus Guevara
Energy-based economic development (EBED) aims to increase energy efficiency, diversify energy resources, and contribute to job creation, retention, and wealth creation in a region. EBED represents the convergence of economic development and energy planning fields by striving to homogenize separate research on the link between energy and economics. The goals of EBED include increasing energy self-sufficiency and diversification as well as economic growth and development. Potential approaches to EBED projects focus on industry development, entrepreneurship, research/innovation, workforce development, energy self-sufficiency, and diversifying energy resources and access.
This document discusses energy efficiency policies and sustainable energy. It notes that many countries are implementing energy efficiency policies to address issues like global warming and dependence on fossil fuels. Energy efficiency and renewable energy are seen as key to sustainable energy policy. The document then discusses several countries' and regions' policies around energy efficiency, greenhouse gas emissions reductions, and renewable energy development, including the European Union, China, and the United States. It also discusses the Kyoto Protocol and concepts like the environmental Kuznets curve and carbon capture and storage.
This document provides an introduction and overview of the book "Electricity reform: social and environmental challenges". It contains 11 chapters written by various contributors on topics related to power sector reform experiences in different countries and regions, and strategies for promoting social and environmental goals through electricity reform. The introduction acknowledges that while the need for electricity is important for development, the environmental implications of rising electricity consumption in developing countries requires integrating environmental and social aspects into power sector reforms. The contributors include academics and experts from organizations like the UN Environment Programme and research institutes focused on energy and environment.
An in depth analysis of the evolution of the policy mix for the sustainable e...Araz Taeihagh
This document analyzes the evolution of China's policy mix for sustainable energy transition from 1981 to 2020. It finds that over time, China has formed a complex policy mix by layering and packaging new policy instruments while calibrating existing ones. The policy mix has evolved from a few authority-based instruments in the early period to the current mix with a large density and diversity of instruments. Specifically, China has increased the policy intensity on air pollution abatement and decreased the intensity on renewable energy support. It also experiments with innovative instruments to reduce carbon emissions. The evolution features incremental changes through layering, replacement, and sequencing of policy instruments.
For the global sustainability community,
the most effective catalyst of change
has long been seen as the informed
self-interest of the mainstream financial
community: if banks and investors
could be convinced of the proximity of
environmental risk or societal impacts,
then it has been assumed that capital
diverted from ‘unsustainable’ practices
would render all other interventions
unnecessary. In practice though, the
sustainability community has found
the financial sector a hard nut to crack.
Although recent years have seen a
substantial increase in the integration of
environmental, social and governance
(ESG) data forming part of investment
analysis, the continued emphasis on shortterm
results and incentives has pushed
longer-term environmental risks, such as
climate change, outside of the boundary
of risks contemplated by mainstream
analysts. That is, until recently.
This fact sheet highlights some statistics from a report by the University of Tennessee Howard H. Baker Center for Public Policy on federal energy incentives. The report shows that federal support for solar energy is consistent with support for traditional energy sources.
INFLUENCES OF POLICIES ON HOUSING SUSTAINABILITY: CASE OF A DEVELOPED COUNTRYDr Renuka Thakore
This paper explores influences of housing policies on housing sustainability, including multi-level
transition process for housing energy efficiency. Important structural barriers experienced by housing
stakeholders in implementing essential conditions for housing energy efficiency; and changes critical for
strategic performance of housing sector are discussed. A mixed methodology was used to identify effects on the
England housing organisaiton’s operational capabilities. The important barriers were evaluated by a survey
distributed to the stakeholders throughout the England demographics; and housing experts were employed
through Delphi method to highlight strategic capabilities required by the organisations to optimise their
performance for energy efficiency. The findings were used to develop a conceptual model for “improved energy
efficiency” for sustainable housing which explicitly embodies essential conditions, important structural barriers
and stakeholders’ perspective into one congruent relationship model.
ACEEE Presentation to PA Climate Change Advisory Committee Jan. 2017Annie Gilleo
Presentation by Annie Gilleo, Meegan Kelly, and Cassandra Kubes to the CCAC focused on the state's current Climate Action Plan and opportunities to further reduce emissions using energy efficiency.
The WWF report identifies solutions to meet growing global energy demand through 2050 without exceeding a 2-degree Celsius temperature rise. It finds that existing sustainable energy technologies could meet demand if deployed rapidly and at scale. However, urgent action is needed in the next 5 years to set policies driving this transition, as delays will increase costs and risks. Key solutions identified are improving energy efficiency, stopping deforestation, developing renewable technologies concurrently, building infrastructure for flexible fuels, replacing coal with gas in the near-term, and implementing carbon capture and storage. Global cooperation and leadership are imperative to guide investment towards sustainable options.
Public engagement in Ontario's energy policy 2009 2016Marco Covi
Major Research Project on the evolution of public engagement in Ontario on energy and environmental policy compared and contrasted against the UK. Lessons that can be learned are discussed as well as limitations to implementation of robust public engagement processes.
PECB Webinar: Managing Risk within the Energy Management Value ChainPECB
Overview:
Managing risks within the energy cycle is truly essential for individuals and companies who manage various phases of this integrated set of processes.
This webinar introduces the participants to the basic terminology and concepts in the energy industry which includes the energy cycle, energy use and various risk types.
It also looks at various energy issues and how the ISO 50001 can be used as a minimum benchmark for organizations looking to build sustainable energy management processes.
Key concepts to be covered include:
Energy Sources: Crude Oil, Natural Gas, LNG, Coal and Power/Electricity
Risks in the Energy Cycle: Market, Credit, Operational, Liquidity, Political, Regulatory, Price, Credit and General Risk Management.
Risk Management Tools and Techniques: Risk Policy, Risk Process, Risk Register and Early warning Indicators.
Presenter:
Orlando is an Enterprise Architect and Program Director with over 15 years’ experience in the field of Business Consulting, Risk Management and Information Technology Delivery. He has an excellent technical background and helps organizations achieve and sustain their ISO certifications.
He has very special interests in renewable energy sources like Biogas, Biofuel and Solar PV.
He is a certified Lead Implementer and Auditor for OHSAS 18001, ISO 50001, ISO 9001, ISO 14001, ISO 20000, ISO 27001, ISO 22301 and holds PHD in Strategy Management and Information Technology. He is the Chief Trainer at Training Heights and the Managing Partner for A4S.
Energy efficiency has become a major energy resource in the United States, reducing energy use and costs. Through policies and programs since 1990, energy efficiency is now the third largest electricity resource in the US, greater than nuclear power. If energy efficiency continued to be supported and expanded, it could become the largest electricity resource by 2030, providing one-third of total generation and avoiding the need for capacity from hundreds of additional power plants. Energy efficiency investments have saved customers and the environment billions while creating jobs and advancing technologies.
This document summarizes a report on successful energy efficiency strategies in other jurisdictions and recommendations for Canada. It finds that the most effective programs have common elements: leadership in prioritizing energy efficiency, legally binding efficiency targets, long-term funding and responsible agencies, comprehensive programs including market transformation, and establishing measurement protocols. The report recommends Canadian governments and utilities adopt these elements to better realize the economic and environmental benefits of energy efficiency.
The original project idea was to analyze how climate change was treated in the energy generation related EIS, however, the study focused to study the future of energy generation in the U.S. based on the EISs that have been submitted and “approved” by EPA in the last 20 years.
1) This document discusses Canada's long-term strategy for meeting energy needs while reducing emissions and improving air quality by 2050.
2) It finds that Canada can meet these goals through increased energy efficiency, reducing the carbon intensity of energy production including developing carbon capture and storage, and transforming electricity generation.
3) An urgent long-term signal is needed to guide investment decisions towards lower emission options.
This document summarizes the key findings of a McKinsey & Company report on unlocking energy efficiency in the US economy. The main points are:
1) The US could reduce annual energy consumption by 23% from projected 2020 levels through cost-effective energy efficiency measures, saving over 9 quadrillion BTUs and $1.2 trillion.
2) Significant barriers have prevented the full realization of this potential. Overcoming these barriers will require a comprehensive, innovative national strategy.
3) Five elements are needed for an effective national strategy: recognizing efficiency as a resource; launching proven and piloted approaches at national and regional levels; identifying funding; improving alignment among stakeholders; and fostering innovation.
The role of energy in economic growth - SternZeus Guevara
This document summarizes Stern's analysis of the role of energy in economic growth. It discusses how Stern modified the Solow growth model to include an energy component and found that energy can either limit or enable growth depending on its availability. The document also reviews ecological economic approaches, which view energy as the most important production factor. It discusses limits to substitution and technological change as ways to decouple economic growth from resource use.
This document provides an introduction to the thesis topic of analyzing challenges to implementing the System of Environmental-Economic Accounts (SEEA) framework for national accounting. SEEA aims to integrate environmental factors into economic measures like GDP to provide a more accurate assessment of national wealth and economic activity. However, only 25 countries have partly adopted SEEA and none have fully implemented it. The document outlines the evolution of SEEA from earlier work on natural resource accounting and sustainable development. It also notes that while SEEA is technically useful, political will and structural factors influence country adoption. The thesis will use literature review and case studies of Germany, Australia and China to examine why SEEA has seen limited implementation and what can enable greater use.
Energy innovation es8928 - renewable energy policy handbook -final m coviMarco Covi
A handbook for policy makers in the renewable energy field in Ontario. The handbook places a heavy importance on better consultation and public education on energy matters when it comes to the planning of large-scale energy projects and makes several suggestions on how to improve this. The handbook is timely as it was written in the context of the 2013 LTEP. In addition it serves as an accessible scientific reference guide for decision-makers and the broader public alike.
Presentation given by Professor Jim Watson, Research Director of UKERC, as part of the Plenary Session: CCS in the UK Energy Landscape at the UKCCSRC Biannual Meeting - CCS in the Bigger Picture - in Cambridge, 2-3 April 2014
Publishing Scientific Research & How to Write High-Impact Research Papers jjuhlrich
Presentation on how to publish high-impact scientific research by Dr. Stefan Hildebrandt and Dr. John Uhlrich as Editors-in-Chief of the journals Solar RRL and Energy Technology at Wiley-VCH. The presentation was held at King Abdullah University of Science and Technology (KAUST), Saudi Arabia on the 10th of February 2019 as part of the KAUST Research Conference on 3rd Generation photovoltaic technologies and beyond.
https://ksc.kaust.edu.sa/Conference-2019/Pages/About.aspx
This document summarizes key findings from the Tracking Clean Energy Progress 2014 report. It finds that emerging economies are stepping up their clean energy ambitions, with Asia accounting for over half of new solar photovoltaic installations in 2013. However, policy uncertainty in OECD countries has stalled clean energy momentum. While clean technologies are becoming more competitive, policy incentives are still needed to drive investment due to factors like low electricity prices and carbon prices in Europe. Overall progress remains below the levels needed to meet long-term climate and energy security goals.
A Civil Society Organization and Networks Position Paper with Suggested Issue...ENVIRONMENTALALERTEA1
This position paper is an output from several CSOs engagements coordinated by Environmental
Alert with financial support from Norad within the framework of ‘Increasing access to
sustainable and renewable energy alternatives in the AlbertineGraben’ that is implemented
by WWF-Uganda Country Office
Issues and Strategies for Low Carbon Development in China and IndiaNeeshu P
Low carbon development is a topic of discussion in both China and India.
The two countries have been relying heavily on the use of fossil fuels for energy generation as their is rise in demand of energy from industries. The Planning Commission in India has constituted an expert group to recommend the Low Carbon Strategies for Inclusive Growth. The study aims to help us understand the barriers, options and success stories of programs which promote low carbon development in the two countries. Learn more about the study at http://www.teriin.org/projects/locci/
Financing for development: Sustainable energy for all in indiaAnjana Satpathy
This document discusses sustainable energy goals for 2030 including providing universal access to electricity and clean cooking fuels, doubling the global rate of energy efficiency improvement, and doubling the share of renewable energy. It then focuses on India's current energy challenges around access, reliance on coal, and emissions. Key actions needed in India are outlined to increase renewable energy capacity and generation from 15 GW currently to 40 GW by 2022 through ambitious government targets. Significant financing challenges are discussed around the high costs of developing India's renewable energy potential given existing conditions.
By Prof Jim Watson, UKERC
Presented at 'Staying on Target: Securing the UK's Energy Future in Challenging Times'; an event organised by the UK Energy Research Centre, on Wednesday 30 April 2014, 14.00-19.00, in London, United Kingdom.
This document discusses Australia's options for renewable energy and efficiency. It contains 5 chapters that examine key considerations for energy policy decisions, policy options to address market barriers for renewables, a methodology to model technology options to predict viability, and the potential of an energy services model to improve efficiency. The introduction emphasizes that establishing sustainable renewable policies requires considering environmental, social and economic factors of all energy generation given its importance and externalities.
The Role of Policy in Accelerating the Energy TransitionChristo Ananth
Christo Ananth, Rajini K R Karduri, "The Role of Policy in Accelerating the Energy Transition", International Journal of Advanced Research in Basic Engineering Sciences and Technology (IJARBEST), Volume 6,Issue 2,February 2020,pp:25-33
The WWF report identifies solutions to meet growing global energy demand through 2050 without exceeding a 2-degree Celsius temperature rise. It finds that existing sustainable energy technologies could meet demand if deployed rapidly and at scale. However, urgent action is needed in the next 5 years to set policies driving this transition, as delays will increase costs and risks. Key solutions identified are improving energy efficiency, stopping deforestation, developing renewable technologies concurrently, building infrastructure for flexible fuels, replacing coal with gas in the near-term, and implementing carbon capture and storage. Global cooperation and leadership are imperative to guide investment towards sustainable options.
Public engagement in Ontario's energy policy 2009 2016Marco Covi
Major Research Project on the evolution of public engagement in Ontario on energy and environmental policy compared and contrasted against the UK. Lessons that can be learned are discussed as well as limitations to implementation of robust public engagement processes.
PECB Webinar: Managing Risk within the Energy Management Value ChainPECB
Overview:
Managing risks within the energy cycle is truly essential for individuals and companies who manage various phases of this integrated set of processes.
This webinar introduces the participants to the basic terminology and concepts in the energy industry which includes the energy cycle, energy use and various risk types.
It also looks at various energy issues and how the ISO 50001 can be used as a minimum benchmark for organizations looking to build sustainable energy management processes.
Key concepts to be covered include:
Energy Sources: Crude Oil, Natural Gas, LNG, Coal and Power/Electricity
Risks in the Energy Cycle: Market, Credit, Operational, Liquidity, Political, Regulatory, Price, Credit and General Risk Management.
Risk Management Tools and Techniques: Risk Policy, Risk Process, Risk Register and Early warning Indicators.
Presenter:
Orlando is an Enterprise Architect and Program Director with over 15 years’ experience in the field of Business Consulting, Risk Management and Information Technology Delivery. He has an excellent technical background and helps organizations achieve and sustain their ISO certifications.
He has very special interests in renewable energy sources like Biogas, Biofuel and Solar PV.
He is a certified Lead Implementer and Auditor for OHSAS 18001, ISO 50001, ISO 9001, ISO 14001, ISO 20000, ISO 27001, ISO 22301 and holds PHD in Strategy Management and Information Technology. He is the Chief Trainer at Training Heights and the Managing Partner for A4S.
Energy efficiency has become a major energy resource in the United States, reducing energy use and costs. Through policies and programs since 1990, energy efficiency is now the third largest electricity resource in the US, greater than nuclear power. If energy efficiency continued to be supported and expanded, it could become the largest electricity resource by 2030, providing one-third of total generation and avoiding the need for capacity from hundreds of additional power plants. Energy efficiency investments have saved customers and the environment billions while creating jobs and advancing technologies.
This document summarizes a report on successful energy efficiency strategies in other jurisdictions and recommendations for Canada. It finds that the most effective programs have common elements: leadership in prioritizing energy efficiency, legally binding efficiency targets, long-term funding and responsible agencies, comprehensive programs including market transformation, and establishing measurement protocols. The report recommends Canadian governments and utilities adopt these elements to better realize the economic and environmental benefits of energy efficiency.
The original project idea was to analyze how climate change was treated in the energy generation related EIS, however, the study focused to study the future of energy generation in the U.S. based on the EISs that have been submitted and “approved” by EPA in the last 20 years.
1) This document discusses Canada's long-term strategy for meeting energy needs while reducing emissions and improving air quality by 2050.
2) It finds that Canada can meet these goals through increased energy efficiency, reducing the carbon intensity of energy production including developing carbon capture and storage, and transforming electricity generation.
3) An urgent long-term signal is needed to guide investment decisions towards lower emission options.
This document summarizes the key findings of a McKinsey & Company report on unlocking energy efficiency in the US economy. The main points are:
1) The US could reduce annual energy consumption by 23% from projected 2020 levels through cost-effective energy efficiency measures, saving over 9 quadrillion BTUs and $1.2 trillion.
2) Significant barriers have prevented the full realization of this potential. Overcoming these barriers will require a comprehensive, innovative national strategy.
3) Five elements are needed for an effective national strategy: recognizing efficiency as a resource; launching proven and piloted approaches at national and regional levels; identifying funding; improving alignment among stakeholders; and fostering innovation.
The role of energy in economic growth - SternZeus Guevara
This document summarizes Stern's analysis of the role of energy in economic growth. It discusses how Stern modified the Solow growth model to include an energy component and found that energy can either limit or enable growth depending on its availability. The document also reviews ecological economic approaches, which view energy as the most important production factor. It discusses limits to substitution and technological change as ways to decouple economic growth from resource use.
This document provides an introduction to the thesis topic of analyzing challenges to implementing the System of Environmental-Economic Accounts (SEEA) framework for national accounting. SEEA aims to integrate environmental factors into economic measures like GDP to provide a more accurate assessment of national wealth and economic activity. However, only 25 countries have partly adopted SEEA and none have fully implemented it. The document outlines the evolution of SEEA from earlier work on natural resource accounting and sustainable development. It also notes that while SEEA is technically useful, political will and structural factors influence country adoption. The thesis will use literature review and case studies of Germany, Australia and China to examine why SEEA has seen limited implementation and what can enable greater use.
Energy innovation es8928 - renewable energy policy handbook -final m coviMarco Covi
A handbook for policy makers in the renewable energy field in Ontario. The handbook places a heavy importance on better consultation and public education on energy matters when it comes to the planning of large-scale energy projects and makes several suggestions on how to improve this. The handbook is timely as it was written in the context of the 2013 LTEP. In addition it serves as an accessible scientific reference guide for decision-makers and the broader public alike.
Presentation given by Professor Jim Watson, Research Director of UKERC, as part of the Plenary Session: CCS in the UK Energy Landscape at the UKCCSRC Biannual Meeting - CCS in the Bigger Picture - in Cambridge, 2-3 April 2014
Publishing Scientific Research & How to Write High-Impact Research Papers jjuhlrich
Presentation on how to publish high-impact scientific research by Dr. Stefan Hildebrandt and Dr. John Uhlrich as Editors-in-Chief of the journals Solar RRL and Energy Technology at Wiley-VCH. The presentation was held at King Abdullah University of Science and Technology (KAUST), Saudi Arabia on the 10th of February 2019 as part of the KAUST Research Conference on 3rd Generation photovoltaic technologies and beyond.
https://ksc.kaust.edu.sa/Conference-2019/Pages/About.aspx
This document summarizes key findings from the Tracking Clean Energy Progress 2014 report. It finds that emerging economies are stepping up their clean energy ambitions, with Asia accounting for over half of new solar photovoltaic installations in 2013. However, policy uncertainty in OECD countries has stalled clean energy momentum. While clean technologies are becoming more competitive, policy incentives are still needed to drive investment due to factors like low electricity prices and carbon prices in Europe. Overall progress remains below the levels needed to meet long-term climate and energy security goals.
A Civil Society Organization and Networks Position Paper with Suggested Issue...ENVIRONMENTALALERTEA1
This position paper is an output from several CSOs engagements coordinated by Environmental
Alert with financial support from Norad within the framework of ‘Increasing access to
sustainable and renewable energy alternatives in the AlbertineGraben’ that is implemented
by WWF-Uganda Country Office
Issues and Strategies for Low Carbon Development in China and IndiaNeeshu P
Low carbon development is a topic of discussion in both China and India.
The two countries have been relying heavily on the use of fossil fuels for energy generation as their is rise in demand of energy from industries. The Planning Commission in India has constituted an expert group to recommend the Low Carbon Strategies for Inclusive Growth. The study aims to help us understand the barriers, options and success stories of programs which promote low carbon development in the two countries. Learn more about the study at http://www.teriin.org/projects/locci/
Financing for development: Sustainable energy for all in indiaAnjana Satpathy
This document discusses sustainable energy goals for 2030 including providing universal access to electricity and clean cooking fuels, doubling the global rate of energy efficiency improvement, and doubling the share of renewable energy. It then focuses on India's current energy challenges around access, reliance on coal, and emissions. Key actions needed in India are outlined to increase renewable energy capacity and generation from 15 GW currently to 40 GW by 2022 through ambitious government targets. Significant financing challenges are discussed around the high costs of developing India's renewable energy potential given existing conditions.
By Prof Jim Watson, UKERC
Presented at 'Staying on Target: Securing the UK's Energy Future in Challenging Times'; an event organised by the UK Energy Research Centre, on Wednesday 30 April 2014, 14.00-19.00, in London, United Kingdom.
This document discusses Australia's options for renewable energy and efficiency. It contains 5 chapters that examine key considerations for energy policy decisions, policy options to address market barriers for renewables, a methodology to model technology options to predict viability, and the potential of an energy services model to improve efficiency. The introduction emphasizes that establishing sustainable renewable policies requires considering environmental, social and economic factors of all energy generation given its importance and externalities.
The Role of Policy in Accelerating the Energy TransitionChristo Ananth
Christo Ananth, Rajini K R Karduri, "The Role of Policy in Accelerating the Energy Transition", International Journal of Advanced Research in Basic Engineering Sciences and Technology (IJARBEST), Volume 6,Issue 2,February 2020,pp:25-33
A #COP26 presentation by Zainab Usman of Carnegie Endowment for International Peace and Katie Auth of Energy for Development, building on this paper: September 28, 2021
REFRAMING CLIMATE JUSTICE FOR DEVELOPMENT: SIX PRINCIPLES FOR SUPPORTING INCLUSIVE AND EQUITABLE ENERGY TRANSITIONS IN LOW-EMITTING ENERGY-POOR AFRICAN COUNTRIES
By Mimi Alemayehou, Katie Auth, Murefu Barasa, Morgan Bazilian, Brad Handler, Uzo Iweala, Todd Moss, Rose Mutiso, Zainab Usman
Advancing inclusive and equitable energy transitions is one of this century’s most vital global challenges, and one in which development finance will play a crucial role. References to justice and equity are widespread in international climate policy, and are increasingly being used by development organizations to guide their own work, including support for energy transitions.
But prevailing definitions of climate justice rarely fully capture the priorities, challenges and perspectives of low-emitting energy-poor countries, the vast majority of which are in sub-Saharan Africa. When applied to development policy, this gap risks prioritizing near-term emissions reductions over broader support for economic development and energy transformation, with comparatively little climate benefit. This could severely hinder poverty alleviation, development, and climate resilience — the very opposite of justice. We need energy transitions that are truly ‘just and inclusive.’ What does this mean for development funders and financiers, and how should it drive their approach to supporting energy transitions in the lowest-income countries?
This document outlines South Australia's climate change strategy from 2015 to 2050. The strategy aims to transition South Australia to a low carbon economy by setting a net zero emissions target by 2050. Some key initiatives include developing renewable energy sources to provide 41% of the state's electricity, making Adelaide the world's first carbon neutral city, supporting innovation in clean technologies, and ensuring a just transition for workers and communities reliant on traditional industries. The strategy establishes six themes to guide climate action in the state over the coming decades: 1) leadership on climate policy, 2) reducing emissions towards net zero, 3) carbon neutral Adelaide, 4) innovation in low carbon industries, 5) state resilience, and 6) community engagement.
Mem presentation at renewable energy dayandrewmnzava
This document outlines Tanzania's policies supporting the development of renewable energy technologies (RETs). It discusses the importance of electricity for development and poverty reduction. RETs like solar PV, micro wind turbines, and biomass are presented as sustainable options for off-grid areas. The government aims to promote private sector participation in RETs through its National Energy Policy, supportive policies, and agencies like the Rural Energy Agency and Fund. The goal is to improve energy access in rural and peri-urban areas through RETs.
Letter from global investor networks to the governments of the worlds largest...Dr Lendy Spires
This letter is from several global institutional investor networks representing over $22.5 trillion in assets to the governments of major economies. It calls for a new dialogue between investors and governments on climate policy to reduce climate risk and encourage low-carbon investment. Specifically, the letter urges governments to implement strong, predictable policies that incentivize low-carbon investments through mechanisms like emissions reductions targets and carbon pricing, while also phasing out fossil fuel subsidies. Investors note they are already taking action on climate change but governments must do more to transition economies to low-carbon through supportive policy frameworks.
The document discusses balancing objectives in climate policy related to land conservation, biofuels, and climate mitigation. It notes that climate policy affects energy production, use, and land use, and outlines key policies like cap-and-trade. It discusses issues around offsets policy, biofuels, and land conservation programs, and the need for flexibility given uncertainties. The document emphasizes balancing multiple objectives through communication and process in the policy discussion.
This document summarizes a report on investment-grade climate change policy that would support significant investment in the low-carbon economy. It discusses what factors institutional investors consider when making investments, such as the policy support and financial attractiveness of investments. The report concludes that to attract private investment, governments need an integrated policy framework with clear emission reduction targets and policies supporting clean energy. Policies also need to provide appropriate returns, recognize the importance of scale, be transparent, and have long-term stability to support major infrastructure investments. An international climate agreement and carbon markets can also help drive investment flows by providing certainty around emission reductions.
The document discusses the need for South Australia to develop a new climate change strategy. The original 2007 strategy requires updating given technological advances and increased urgency of climate change. The new strategy will focus on leadership in transitioning to a low-carbon, resilient economy through renewable energy and clean technologies. It will guide South Australia's climate actions and engage stakeholders and the public in the consultation process to finalize the new strategy.
Key facts for the Energy Priority • It is estimated that approximately $190 million of the $2.65 billion supporting national priorities is allocated directly to the Energy Priority area.* • In terms of citation impact, an indicator of research quality, Australian research on this Priority ranks: • 2nd out of 11 when compared against selected Asia Pacific countries** • 9th out of 15 when compared to selected European countries, Canada, New Zealand and US
Sustainable energy trends and opportunities thomas eid_feb2019_liThomas G. Eid
This slide set provides information and data summaries from multiple sources in support of sustainable energy management practices and programs.
The slide set consists of:
Greenhouse gas (GHG) history, survey results on climate change, and GHG emissions by type of gas and economic sector/industry
Approaches to mitigate climate change and reduce GHG
Top trends in the sustainable energy and renewable energy marketplaces
Energy and renewable energy production by type/source
The slide set is scripted with information sources included in both the slides and notes pages. Please contact me if you have any questions or comments at: thomasgeid@comcast.net
Kenya Draft National Climate Change Framework Policy 2014cliffordcomondi
The document outlines Kenya's draft national climate change framework policy. It discusses the need for a policy to address climate change based on IPCC reports showing Kenya's vulnerability. It identifies key sectors impacted by climate change and gaps in governance. It then outlines the goal, objectives, guiding principles, and policy pillars/statements around low carbon development, mainstreaming climate change, research/education, governance, finance, implementation and more. The overall aim is to enhance resilience and support low carbon development in Kenya.
Day Two - UK AD & Biogas Tradeshow 2016 : R&I HubUKADBiogas
This document summarizes a presentation given at the UK AD & Biogas Tradeshow on July 6-7, 2016 in Birmingham. The presentation discusses research being conducted on the impact of plastic bin liners on anaerobic digestion (AD).
The presentation outlines that plastics have become ubiquitous in modern society. However, plastics in the waste stream can cause issues for AD as they do not break down. Food waste currently contains plastics from bin liners that contaminate the AD process. The research aims to test biodegradable plastic bin liners to see if they break down during AD and do not contaminate the process. The results and conclusions of experiments with biodegradable plastics will be discussed to
Benjamin Sovacool "The Nordic Low-Carbon Transition: Implications and Insights for Researchers and Practitioners" Keynote Energy Cultures Conference 2016
The document discusses politics and protected landscapes in Wales. It outlines the new Welsh government's commitment to an ecosystem approach and establishing a Natural Environment Framework. It also discusses potential scenarios for the future, including greater centralization versus localization and the role of economic valuation versus spatial planning.
2011 global investor statement on climate changeDr Lendy Spires
This document summarizes a statement signed by 285 investors representing over $20 trillion in assets regarding climate change and the need for investment-grade climate and energy policy. It calls for:
1) Effective domestic policies that incentivize low-carbon investment through emissions targets, clean energy policies, carbon pricing, and other incentives.
2) Well-designed policies that provide appropriate returns, scale, transparency, long-term certainty and avoid retroactivity.
3) An ambitious international agreement and carbon markets to send strong signals to facilitate private capital flows for climate solutions.
Synopsis:
The energy system has historically been characterised as “mature”, displaying small, incremental technological improvements and low levels of both public and private research intensity. However, over the past decade this situation has been changing, illustrated by significiant increases in public and private energy R&D expenditure across many countries in reaction to strengthening concerns around fossil fuel prices, climate change and energy security. These challenges have driven the search for alternative sources of energy, as well as more efficient ways of extracting and consuming fossil fuels. As support grows for energy innovation so too does the need to understand how energy innovation unfolds with a view to ensure that the vast public and private resources currently being committed to innovation in this sector are being deployed effectively.
In this context the talk outlines the Energy Strategy Fellowship’s current research project, which seeks to map out systems of energy innovation for a range of countries and technologies, measure the effectiveness of these different arrangements and compare different approaches with a view to learning lessons for successful energy research and innovation policy. Following a discussion of the drivers that have led to this renaissance in energy innovation and the project’s research objectives, the talk introduces the different technology and country case studies under examination, the methods employed and some of the innovation theory that underpins this research. Finally, the talk explores some emerging issues in the field of energy technology innovation the project engages with, such as the globalised nature of energy innovation, the role of the private sector and energy innovation outside ‘Western’ countries.
Biography:
Matthew has worked as a Research Associate within the RCUK Energy Strategy Fellowship team at Imperial College since 2012. His research examines the types of conditions responsible for accelerating the development and deployment of energy technologies with the potential to address critical challenges facing the global energy sector, such as climate change, energy security and fuel poverty. This work examines the development of a handful of promising, high-profile energy technologies across a variety of different countries worldwide to understand what makes for an effective energy innovation system. Prior to this he undertook his PhD thesis at the University of Leeds from 2009 exploring how the application of innovative energy business models could help to drive forward sustainability transitions.
1. The British Psychological Society provided comments on the EU Green Paper on sustainable energy. It notes that behavioral changes by consumers and producers are essential to achieving carbon reduction goals, in addition to technological developments. Psychological research can help policymakers understand how to influence energy behaviors.
2. The document expresses concern that the Green Paper places little attention on controlling and reducing energy demand. A strategy for sustainable energy consumption across Europe is needed to balance the current focus on supply.
3. For a sustainable energy policy, equal priority should be given to carbon emissions as to economic costs when evaluating policy options. This would encourage consideration of alternative energy sources beyond current emphases on economic growth and energy prices.
IChemE Energy Centre report - Transitions in electricity systems towards 2030...Alexandra Howe
1. Climate change mitigation efforts in the analyzed countries are implemented only if they promote economic growth objectives.
2. Energy security concerns drive diversification of electricity sources, with many countries investing in natural gas infrastructure and promoting renewable energy.
3. A key driver of capacity expansion is addressing shortages in electricity supply to fuel economic growth, with countries investing in new generation capacity and transmission infrastructure.
Similar to ENV616 Science-Policy Seminar 31696488 KAustin (20)
IChemE Energy Centre report - Transitions in electricity systems towards 2030...
ENV616 Science-Policy Seminar 31696488 KAustin
1. IS ENOUGH SCIENTIFIC ENERGY
GOING INTO CLIMATE CHANGE
MITIGATION POLICY?
Kate Austin - Student # 31696488
ENV616 – Environmental Policy for the 21st Century
A review of scientific contribution towards Australia’s energy and climate change
mitigation policy development
2. AUSTRALIAN ENERGY POLICY
• Australia benefits from plentiful and diverse energy resources
• One of only 3 net energy exporters in the OECD
• World class wind, solar and geothermal resources largely untapped
• Energy sector is a major contributor to the Australian economy
• Australian Government’s Energy White Paper is focused on supplying
domestic and foreign markets with Australian sourced fossil fuel
resources
• Combusted fossil fuels are major contributors to GHG emissions and, as
a result, anthropogenic climate change.
3. CLIMATE CHANGE – THE SCIENCE
• It is real – our earth is warming
• Significant contribution to warming effect from anthropogenic influences
• Australia is vulnerable to physical changes as a result
• Australia’s contribution to CO2 emissions considered low in comparison to
other global actors – but is it?
• Consider Australia’s energy mix as an electricity source and our CO2
emissions profile…
4. THE ROLE OF SCIENCE IN SHAPING
ENERGY AND CLIMATE POLICY
The role of science in informing and shaping policy involves:
• Providing clarity of understanding around the fundamental dimensions of
issues facing policy-makers;
• Specifying parameters around known and verifiable facts and what remains
unclear;
• Identification and analysis of options for responding to issues;
• Analysis of consequences of recommended courses of action across
multiple dimensions to assess impact and viability as a policy response; and
• Raised public and political consciousness about the threat of climate
change to the world’s ecosystems.
5. RECOMMENDATIONS FOR CO2 REDUCTION
FOR CLIMATE CHANGE MITIGATION
• How do we reduce CO2 emissions to mitigate against the risk of climate
change? A range of approaches recommended by scientists and policy
advisors.
• Early approaches included command and control instruments with a more
recent trend towards favouring market-based mechanisms.
• Consensus we need to cease, or significantly reduce our reliance upon fossil
fuels
• Increase renewable energy generation sources into energy mix
• Climate change mitigation is not a single policy solution – need to adopt a
range of policy instruments
6. SCIENTIFIC RECOMMENDATIONS FOR CO2
REDUCTION & MITIGATION – POLICY OPTIONS
Energy related policy options for the reduction of CO2 emissions:
• Carbon Prices – including carbon tax and emissions trading schemes;
• Subsidies and other taxes – Subsidies/rebates on capital outlays; Feed in Tariffs;
Fuel/resource tax; Low interest or Guaranteed loans;
• Direct Government Expenditure – installation of government funded
infrastructure including public electric vehicle recharging stations
• Regulatory Instruments - RET; Renewable energy certificate schemes;
Electricity supply or pricing regulation; Building and technology standards; Fuel
content mandates; Energy efficiency regulation; Mandatory assessment, audit
or investment.
• Support for Research & Development (R&D) – general and demonstration;
deployment and diffusion
• Information and Education – Mandatory energy efficiency labelling
Twomey, 2012.
7. SCIENCES’ SUCCESS IN INFLUENCING
ENERGY AND CLIMATE POLICY
Scientists have had varying levels of success in influencing energy and climate
change policy in Australia. Some successes include:
• Australian Greenhouse Office (AGO) 1998 – Australia first country to establish a
dedicated agency to reduce GHG emissions
• Mandatory Renewable Energy Target (MRET) scheme 2001
• Australia ratifies the Kyoto Protocol to reduce GHG emissions - 2007
• ‘Garnaut Review’ Climate Change Report released – 2008
• Wilkins Review – ‘Strategic Review of Australian Government Climate Change
Programs’ released - 2008
• Small-scale Renewable Energy Scheme (SRES) and Feed in Tariffs - 2011
• The Clean Energy Act 2011 carbon pricing mechanism ‘carbon tax’
• Australian Renewable Energy Agency (ARENA) 2012 – competitiveness and supply
of renewable energy.
• Clean Energy Finance Corporation 2013 – finance renewable energy, energy
efficiency and low-emissions technology projects.
8. SCIENCES’ CHALLENGE IN INFLUENCING
ENERGY AND CLIMATE POLICY
A number of key energy and climate policy instruments and institutions previously
introduced have, or are, being eroded including:
• In 2005 the IEA urges Australia to consider an ETS; Garnaut recommends similar in
2008. Australia was slow to respond with the Clean Energy Act 2011 carbon (tax)
pricing mechanism which has since been repealed.
• RET facing cuts to its current target of 41,000GWh down to 32,000GWh.
• Significant funding cuts were outlined in the 2014 Budget to key climate change
policies and agencies including CSIRO and ARENA whilst increasing support for the
fossil fuels industry.
• A review of the future of ARENA and Clean Energy Finance Corporation is
underway.
• Policy backflips are resulting in market uncertainty – Renewable energy and
energy efficiency investment continues to decline stymying the large scale
projects scientists and experts say will help mitigate climate change.
• Warning: Political Leaders on both sides of politics lost positions over climate policy!
9. CHALLENGES INCORPORATING
SCIENCE INTO POLICY
A number of factors impede successfully incorporating science into the political realm.
• Difficult to present accurate, relevant, policy-neutral data.
• Difficulties for scientists to translate technical terms and complex concepts into the
actionable strategies of policy-makers.
• Energy and Climate Change policy issues are inherently intricate sharing common
qualities:
• Complexity
• Polarisation
• Winners and Losers
• Delayed Consequences
• Decision Distortion
• National vs Regional Conflict
• Misuse of Scientific Information
• Funding sources of scientific research seen to distort the credibility
of findings.
• Difficult for scientists to appreciate that the science is one element
of policy deliberations.
• Some scientists are reluctant to involve themselves in the political
process.
10. CHALLENGES FACING AUSTRALIAN
ENERGY POLICY MAKERS
Challenges integrating science and policy are broadly recognised
• Australia faces additional challenges
• Economic drivers – increased growth with resource-based economy
• Energy sector dominated by influential lobby groups
• Policy-makers agenda dictated by short-term view
• Belief in the science?
• Is this leading to a Government failure on energy and climate
change policy?
11. IMPROVING THE SCIENCE-POLICY
RELATIONSHIP - RECOMMENDATIONS
• Consider adopting an adaptive management approach to policy development -
allowing flexibility to cater for learning and changing developments
• Clearly define and communicate the various roles and responsibilities of scientists
and policy advocacy.
• Help policy makers understand the benefits of science in helping to shape policy
and inform the constituency for the need for courses of action.
• Bridge the gap between scientists and policy makers - strengthen ties; help policy
makers ask the right questions, translate the science into actionable information.
• Scientists can undertake analysis and deliver policy options to support decision-
making including identifying risks and consequences of action and inaction across
multiple sectors and portfolios.
• Must develop an Energy/Climate Change policy portfolio following an integrated
and coherent design process – one instrument will not transform our energy segment
and solve CO2 mitigation.
12. STABILITY FOR THE POLITICAL
ENVIRONMENT
• Australia is under increasing pressure domestically and internationally to
modernise our energy and climate policy.
• Our political environment remains unstable with scientists struggling to influence
the political agenda for energy and climate.
• Climate change will create an ever unstable environment for which we seek
stability through mitigation and adaptation measures.
• We should seek the same stability in our political environment.
• For without it – we will fail to set an agenda to meet our nations growing
energy demands and we will expose the planet to growing CO2 emissions from
the continued burning of fossil fuels…. In that fail in our broader obligation to
humanity and future generations to mitigate the risks of climate change.
14. REFERENCES
Arvai, J., Bridge, G., Dolsak, N., Franzese, R., Koontz, T., Luginbuhl, A., Robbins, P., Richards, K., Smith-Korfmacher, K., Sohngen, B.,
Tansey. J. and Thompson, A. 2006. Adaptive management of the global climate research and climate policy. Climate Change, vol.
78, p.p. 217-225.
Beeson, M. and McDonald, M. 2013. The politics of climate change in Australia. Australian Journal of Politics and History, vol. 59, p.p.
331-348.
Australian Government. 2015a. Energy White Paper. April 2015. Department of Industry and Science. Viewed online on 13th April
2015 at: http://ewp.industry.gov.au/sites/test.ewp.industry.gov.au/files/EnergyWhitePaper.pdf
Australian Government. 2015b. Setting Australia’s post-2020 target for greenhouse gas emissions – Issues paper. March 2015.
Department of Prime Minister and Cabinet. Viewed online on 13th April 2015 at:
http://www.dpmc.gov.au/sites/default/files/publications/Issues_Paper_greenhouse_gas_1.pdf
Cortner, H. J. 2000. Making science relevant to environmental policy. Environmental Science and Policy, vol. 3, p.p. 21-30.
Curran, G. 2009. Ecological modernisation and climate change in Australia. Environmental Politics, vol. 18, p.p. 201-217.
Garnaut, R. 2011. Australia in the global response to climate change: Garnaut climate change review – update 2011. Viewed online
on 13th April 2015 at: http://www.garnautreview.org.au/update-2011/garnaut-review-2011/summary-20June.pdf
Holmes, J. and Clark, R. 2008. Enhancing the use of science in environmental policy-making and regulation. Environmental Science
and Policy, vol. 11, p.p. 702-711.
International Energy Agency (IEA). 2015. IEA Energy Atlas Australia Electricity. Viewed online on 13th April 2015 at:
http://energyatlas.iea.org/?subject=-1118783123
International Energy Agency (IEA). 2012. Energy policies of IEA countries – Australia: 2012 Review. Viewed online on 13th April 2015 at:
https://www.google.com.au/url?sa=t&rct=j&q=&esrc=s&source=web&cd=1&cad=rja&uact=8&ved=0CB4QFjAA&url=https%3A%2F%2
Fwww.iea.org%2Fpublications%2Ffreepublications%2Fpublication%2FAustralia2012_free.pdf&ei=O7o-
VcXsDs_hoASOxYGoCg&usg=AFQjCNEzT3UQQHjQkjjf19J_JPfctiSDrA&bvm=bv.91665533,d.cGU
IPCC. 2014. Climate Change 2014: Synthesis Report. Contribution of Working Groups I, II and III to the Fifth Assessment Report of the
Intergovernmental Panel on Climate Change [Core Writing Team, R.K. Pachauri and L.A. Meyer (eds.)]. IPCC, Geneva, Switzerland,
151 pp.
15. REFERENCES
Jotzo, F. and Kemp, L. 2015. Australia can cut emissions deeply and the cost is low. Centre for Climate Economics and Policy for WWF
– Australia. Viewed online on 20th April 2015 at:
http://awsassets.wwf.org.au/downloads/fs077_australia_can_cut_emissions_deeply_and_the_cost_is_low_21apr15_v2.pdf
Keohane, R. O. 2015. The global politics of climate change: Challenge for political science. Political Science, vol. 48, p.p. 19-26.
Lackey, R. T. 2007. Science, scientists, and policy advocacy. Conservation Biology, vol. 21, p.p. 12-17.
Parkinson, G. and Vorrath, S. 2015. 10 things we learned about….Abbott’s contempt for climate. Renew Economy. Viewed online on
24th April 2015 at: http://reneweconomy.com.au/2015/10-things-we-learned-about-abbotts-contempt-for-climate-81165
Oikonomou, V. and Jepma, C. J. 2008. A framework on interactions of climate and energy policy instruments. Mitigation and
Adaptation Strategies for Global Change, vol. 13, p.p. 131-156.
Scott, J. M., Rachlow, J. L., Lackey, R. T., Pidgorna, A. B., Aycrigg, J. L., Feldman, G. R., Svancara, L. K., Rupp, D. A., Stanish, D. I. and
Steinhorst, R. K. 2007. Policy advocacy in science: Prevalence, perspectives, and implications for conservation biologists.
Conservation Biology, vol. 21, p.p. 29-35.
Singh, G. G., Tam. J., Sisk, T. D., Klain, S. C., Mach, M. E., Martone, R. G. and Chan, K. M. A. 2014. A more social science: Barriers and
incentives for scientists engaging in policy. Frontiers in Ecology and the Environment, vol. 12, no. 3, p.p. 161-166.
Steel, B., List. P., Lach, D. and Shindler, B. 2004. The role of scientists in the environmental policy process: a case study from the
American west. Environmental Science & Policy, vol. 7, p.p. 1-13.
Talberg, A., Hui, S. and Loynes, K. 2013. Australian climate change policy: a chronology. Parliamentary Library Research Paper Series
2013-14, 2 December 2013.
Twomey, P. 2012. Rationales for additional climate policy instruments under a carbon price. The Economic and Labour Relations
Review, vol. 23, p.p. 7-32.
Wagner, G. and Zeckhauser, R. J. 2012. Climate Policy: hard problem, soft thinking. Climate Change, vol. 110, p.p. 507-521.
World Bank. 2015. 3.8 World Development Indicators: Energy dependency, efficiency and carbon dioxide emissions. Viewed online
on 24th April 2015 at: http://wdi.worldbank.org/table/3.8
Editor's Notes
Australia benefits from plentiful and diverse energy resources. It is the world’s 9th-largest energy producer and one of only 3 net energy exporters in the OECD (Organisation for Economic Co-operation and Development) – all derived from fossil fuel sources. Yet ‘Australia also has extensive untapped wind, solar and geothermal resources, and large potential sources of wave, tidal and biomass energy’ (IEA, 2012, p. 7). The energy sector is a key contributor to the Australian economy employing around 100,000 people and contributing some 16% of GDP (IEA, 2012).
The Australian Government (2015a) recently published its Energy White Paper which outlines the country’s energy policy framework which the Government describes as the blueprint for ‘delivering competitively priced and reliable energy supply to households, business and international markets’.
At the epicentre of this policy framework is the supply of domestic and foreign markets with Australian sourced fossil fuel resources such as black and brown coal, and natural gas.
These products when combusted are major contributors to GHG emissions, and as a result, anthropogenic climate change.
Climate change has become one of the most contentious and divisive issues in Australian politics (Beeson & McDonald 2013; Talberg, Hui & Loynes, 2013; Keohane, 2015). It’s uncertain, global, and long-term nature presents a challenging trifecta for policy makers to address (Wagner & Zeckhauser, 2012) – even more so when our policy makers are themselves skeptical about the science. Or perhaps they choose to ignore the science in favor of broader economical concerns as indicated by the IEA who warned in 2012 that energy production had begun to dominate the Australian economy.
So what of the science? Most would agree: Climate change is real – the earth is warming. This warming is a result of considerable anthropogenic influence - human activity such as the burning of fossil fuels are a major contributing factor. And, we are likely to see physical changes in our world because of these activities with Australia quite vulnerable to these changes (Garnaut, 2011; IPCC, 2014).
Australia’s contribution to global CO2 levels is often passed off as negligible because we are considered a low emitter in comparison to many countries. Certainly the Australian Government in their recent Issue Paper ‘Setting Australia’s post-2020 Target for Greenhouse Gas Emissions’ (2015b) is positioning the nation as having taken action to meet our global commitment, and more recently in the media, as providing a blueprint that other nations globally can follow (Parkinson & Vorrath, 2015).
However when you look at Australia’s per capita rate of emissions, we are still one of the highest emitters of CO2 world wide. In fact we are the highest emitter per capita in the OECD (World Bank, 2015). When you consider the amount of electricity generated by those high emitting countries, it is evident that our generation levels are in fact quite low, yet our emissions in contrast, quite high. A major contributing factor is Australia’s significant reliance upon fossil fuels in our energy mix (IEA, 2015).
If we are to change this profile and reduce our CO2 emissions policy makers will need to understand the science behind the issues. What then is the role of scientists in this process?
The role of science in informing and shaping policy involves (Steel et al., 2004):
Providing clarity of understanding around the fundamental dimensions of issues facing policy-makers – providing expertise around the scope or magnitude of the issue and interrelated issues (i.e. the interrelated nature of many issues relating to energy and climate policy). This may even involve estimating or predicting severity, frequency and associated impacts of the effects of climate change to inform policy makers in determining mitigation or adaption policy.
Specifying parameters around known and verifiable facts and what remains unclear – often it is just as important to understand what is uncertain about a particular issue as it is what is able to be verified and proved factual. As often it is within the areas of uncertainty where the risk lies for policy-makers.
Identification and analysis of options for responding to issues; Analysis of consequences of recommended courses of action across multiple dimensions to assess impact and viability as a policy response
And possibly most importantly, science should raise both the public and political consciousness (Cortner, 2000) about CO2 emissions, the threat of climate change on our world’s ecosystems and locally Australia’s energy profile and the contribution that our energy sector is having towards this issue.
So in raising our consciousness, what do the experts suggest should be done to mitigate these risks? A range of recommendations have been posited from early command and control measures such as technological solutions and emissions performance standards, to a shift more recently towards market-based instruments such as environmental taxes or permit trading schemes (Twomey, 2012).
Notably, and not surprisingly, the first step is to cease or significantly reduce our dependency upon fossil fuels, increasing renewable energy sources for electricity generation in our energy portfolio.
Australia is well positioned to transition to a renewable energy mix with world-class solar, wind and geothermal energy sources (Garnaut, 2011; Jotzo & Kemp, 2015). In fact it is estimated Australia’s renewable energy potential is in excess of 500 times greater than it’s current power generation capacity (Jotzo & Kemp, 2015).
However, scientists agree the best approach to climate change mitigation is not through a single policy instrument, but rather by adopting a range of instruments in the portfolio (Garnaut, 2011; Oikonomou & Jepma, 2008). This has resulted in a broad range of instruments being developed to mitigate the effects of increasing CO2, particularly as it relates to the energy sector.
Twomey (2012) suggests there is a range of energy related policy options available to reduce CO2 and mitigate climate change including:
Explicit carbon pricing mechanisms such as - carbon taxing and emissions trading schemes.
Financial instruments such as subsidies and other taxes – which might include subsidies or rebates associated with capital outlays (i.e. retrofitting a coal-fired generator with carbon capture and storage systems); Feed in Tariffs which were popular to ignite the solar industry a couple of years ago – although as a policy they were found to have some unintended consequences such as rising electricity prices; Fuel/resource taxes for instance to cost the externality of pollution associated with using diesel fuel for electricity generation, particularly in remote areas and transport sector; Low interest or guaranteed loans for transitioning to renewable energy technology, for research and development or for abatement investment such as CCS.
Direct government expenditure – which might include funding the installation of infrastructure such as charging stations for EV’s, which support a transition for the transportation sector to cleaner solutions or investment in ‘green’ generation sources by local or State Governments.
Regulatory options include a broad range of instruments including the RET, renewable energy certificates such as those used for Large and Small-scale solar scheme; electricity pricing regulation and setting of tariffs, building and technology standards ensuring minimum energy efficiency or emissions standards; Fuel content mandated – increasing biofuel content, Energy efficiency regulation (minimum efficiency standards), Mandated assessment, audit or investment such as GHG emissions and energy use reporting.
Support for R & D including supporting initiatives and institutes such as National Low Emissions Coal Initiative, Australian Solar Institute and CCS Flagships Program.
Motivational instruments such as information and education – including labelling schemes such as mandatory energy efficiency labelling for appliances.
Whilst this is certainly a comprehensive list of generic policy options designed to mitigate climate change, many of which are founded on significant scientific research and empirical evidence, one must ask, has science been successful in shaping Australian policy for energy and climate policy?
Historically, scientists and climate experts have had varying levels of success in influencing Australian energy and climate policy for mitigation of CO2 emissions. This fluctuating success perhaps mirrors the turbulent state of Australian politics over the last decade or so. At times the government of the day and their advisors have been pioneers, only to erratically alter course and backflip on climate change policy (Talberg, Hui & Loynes, 2013).
In line with the energy and climate policy instruments previously discussed some of these successes include:
1998 establishment of the Australian Greenhouse Office (AGO) – Australia first country to establish a dedicated government agency to reduce GHG emissions (Talberg, Hui & Loynes, 2013).
The establishment of the MRET (Mandatory Renewable Energy Target) by the Howard Government in 2001
Australian Prime Minister Kevin Rudd ratifies the Kyoto Protocol to reduce GHG emissions – 2007
The Garnaut Review climate change report – Key review commissioned by the government analysing the impacts of climate change on Australia including costs of mitigation and adaptation (Talberg, Hui & Loynes, 2013).
The Wilkins Review ‘Strategic Review of Australian Government Climate Change Programs’ commissioned by the government in 2008 (Talberg, Hui & Loynes, 2013).
The successful combination of the Federal SRES Small-Scale Renewable Energy Scheme and State-based Feed-in-Tariffs ignited the PV industry in 2011.
The Clean Energy Act 2011 carbon pricing mechanism introduced by the Gillard Govt in 2012 (Australian Govt, 2015).
Australian Renewable Energy Agency (ARENA) established in 2012 under Labour with a mandate to improve the competitiveness of renewable energy technologies, and to increase the supply of renewable energy in Australia.
Clean Energy Finance Corporation introduced by the Gillard government in 2013 to provide finance for renewable energy, energy efficiency and low-emissions technology projects.
All of these institutions or policy instruments were lynchpins for energy and climate agenda and shaped through advice and expertise of the scientific and professional community.
Sadly, a number of key energy and climate policy instruments introduced are being eroded with our mitigation efforts and international reputation along with them.
In 2005 the IEA urged Australia to consider implementing an ETS in the Energy policies of IEA countries – Australia 2005 review. Garnaut (2008 and 2011) supported this recommendation. Heeding advice, the Australian government took initial steps towards an ETS with the Clean Energy Act 2011 carbon pricing mechanism introduced by the Gillard Govt in 2012. This legislation has subsequently been repealed by the Abbott government (Australian Govt, 2015).
RET facing cuts to the current target of 41,000GWh down to 32,000GWh – this is seen by many commentators as a backwards step for the renewable energy industry as well as our ability to meet our commitments for cutting CO2 emissions.
Significant funding cuts for climate change programs in the 2014 Budget with funding estimated to drop $4.5 billion in the first fiscal year whilst increasing support for the fossil fuel industry.
It has been extensively covered in the media that the Government is looking to dismantle both the Clean Energy Finance Corporation and ARENA.
This coupled with significant funding cuts in the 2014 is sending negative signals to the market resulting in market uncertainty and a downturn in renewable energy and energy efficiency investment. Which is stymying the type of large scale projects that the scientists and experts say will be effective in mitigating climate change.
Whilst our politicians do not heed the advice of our scientists and experts they should be mindful that political leaders on both sides of politics have lost their positions over climate policy in recent years!
This begs the question of why has it been so challenging to obtain stability in our energy and climate policy environment? A number of factors impede successfully incorporating science into the political realm.
It is a common assumption that including science in the political decision-making process will improve the quality of decisions (Steel et al., 2004), yet it is often challenging for technical experts and scientists to provide accurate, relevant and policy-neutral data to decision-makers (Lackey, 2007; Scott et al., 2007).
It is difficult to explain technical theories and complex concepts in simple terms and translate those into actionable strategies.
Energy and climate change policy issues are inherently intricate sharing several common qualities (Lackey, 2007) including:
* Complexity – multiple options and trade-offs
* Polarisation – clashes between competing values are common-place
* Winners and Losers – for each policy choice or instrument there are interest groups who will benefit, those who will be negatively impacted and groups for which the result will be uncertain. This is relevant for energy policy relating to transitioning to renewables, reducing mining and phasing out assets.
* Delayed consequences – there are no quick fixes, or the benefits may not be realised for decades. Again, this is especially relevant for the generational issue of climate change mitigation.
* Decision distortion – where scientists or policy-makers do not present a full range of options, distorting the options, benefits or consequences based on their beliefs or values i.e. providing policy advocacy masquerading as science.
* National vs Regional conflicts – priorities may conflict significantly between local, national and international requirements. Again this is particularly relevant in Australia’s energy/climate policy agenda where reaping the benefits through energy policy at a national level is often pitted against international obligations to climate policy.
* Misuse of Scientific Information – science can become an ‘battleground’ as we have seen in recent times with vested interest groups who may selectively use or misuse scientific information to support arguments for energy or climate action or inaction. Often misuse of scientific information is advocacy driven.
The science is often funded by government agencies, corporations and other public and private interest groups calling into question the credibility of scientific findings as distorted by vested interests (Lackey, 2007; Scott et al., 2007).
It is sometimes difficult for scientists to appreciate that the science is only one element of policy deliberations i.e. not the only answer or consideration (Steel et al., 2004).
In contrast, some scientists are reluctant to involve themselves in the political process – either due to lack of confidence in expertise (Scott et al., 2004) or for fear of being criticised by colleges or commentators.
The challenges of integrating science and policy is broadly recognised (Steel et al., 2004; Curran, 2009; Singh et al., 2014;).
However Australia faces some additional challenges (Australian Govt 2015):
A number of economic drivers
Projected economic growth of 17% over 5 years 2014-2019 compared to global average of 12% for other advanced countries
Population growth 1.6% compared to .4
Coal 60% of primary energy source in comparison to 20% of other developed nations.
95% of energy consumption from fossil fuel compared to 81% of other OECD countries.
Our energy sector is dominated by influential lobby groups – primarily from the fossil fuel industry who seem to be exercising their influence on the current political agenda.
Policy-makers often take a short-term view (what is of poignant to voters now) rather than a long-term ‘generational’ view needed for climate policy.
Finally there is the issue of belief in the science (as undeniable as it may seem to be). It is possible that a section of our politicians choose not support the science for convenience. Curran suggests that both sides of Australian politics ‘have considerable interest, economic and political, in defending the energy status quo’ (2009, p. 202) and that this could be a conscious decision because governments of countries that export fossil fuels tend to generate weak climate policies.
It is because of the challenges policy makers face and the focus of policy makers on short-term gains and vested interests that Wagner and Zeckhauser (2012, p. 507) believe that it ‘may well take dramatic loss to jolt the collective conscience towards serious action’. So short of a dramatic loss, how to we improve the situation?
How could we improve the science/policy relationship?
Consider adopting an adaptive management approach to policy development - this allows policies to be flexible to respond as scientists learn what mechanisms are effective and as technologies evolve.
We must understand, clearly define and communicate the various roles and responsibilities relating to science, scientists and policy advocacy to ensure clarity of policy making based on technical and scientific data and remove distortion associated with values and preferences. Some still feel strongly about scientists and policy advocacy (Lackey, 2007) so where scientists chose to advocate a policy, to ensure transparency and trust, the advocacy should be declared.
Help policy makers to understand the benefits of the science in helping to shape policy and inform the constituency for the need for courses of action.
Must aim to bridge the gap between scientists and policy makers. This may require ‘interpreters’ to provide the interface between the scientists and policy makers to effectively translate the science into workable strategies and to translate issues into appropriate questions for scientists to answer. These may be individuals or boundary organisations (Holmes & Clarke, 2008).
An adaptive management approach is appealing given the complexity and uncertainty associated with energy, environmental and climate issues. Adaptive management allows policymakers to learn over time and/or adapt policies as mitigation measures take affect and environment or markets begin to respond (Arvai et al., 2006).
Scientists can undertake analysis and deliver policy options to support the decision-making of policy makers, including identifying risks and consequences of actions and inactions associated with various policy options including across multiple sectors and/or portfolios – i.e. unintended consequences of FIT’s on increased electricity prices even though it ignited the solar PV industry.
Scientists and policy makers must work towards the development of an Energy/Climate Change policy portfolio following an integrated and coherent design process (Twomey, 2012) or risk creating a portfolio of policy instrument combinations that are at least incompatible and at worst contradictory, costly and fail to achieve their goals.
Climate change is a quintessential public policy issue but perhaps more than ever science has a role to play in policy development because the issue of climate change is the policy perfect storm in that it is complex, global and multi-generational (Wagner & Zeckhauser, 2012) and science can inform and shape policy decision-making across this trifecta of intricacy.
The Australian Government is under increasing pressure both domestically and from abroad to modernise their energy and climate policy and shift away from their political convictions that continue to set environment against economic interests (Curran, 2009).
The political environment remains turbulent and as a result we should not view the scientific community’s ability to influence energy and climate policy in terms of success and ‘failure’ because of the nature of politics. As we have seen, even where scientists make successful inroads into influencing policy and governments develop instruments to tax carbon, or foster a transition to renewable energy or establish institutions to finance climate change mitigation, they just as quickly can repeal a law, dismantle an agency or are replaced by their opposition.
It is undeniable that climate change will create an unstable environment for which we seek stability through mitigation and adaptation measures. So too should we be seeking stability within our political environment so that our expert scientific advisors and policy makers can get down to the business of developing policy to transition our nation to a low-carbon energy model and significantly reduce our CO2 emissions. For if we do not, we will fail to set an agenda to meet our nations growing energy demands and we will expose the planet to growing CO2 emissions from the continued burning of fossil fuels…and
In that fail in our broader obligation to humanity and future generations to mitigate the risks of climate change.