The NRTEE has examined the role of economic instruments in supporting technologies with the potential to reduce energy-based carbon emissions on both the demand and supply sides of the energy equation. How a government taxes and spends has an enormous effect on the way the economy works ? and the way to maximize this impact is to ensure policies work together to support over-arching goals, like a sustainable energy future.
The result of a two-year multistakeholder process, the NRTEE has developed a set of recommendations aimed at helping the country take a leadership position in the innovation of technologies that will lay the foundations of a sustainable energy future, in Canada and around the world.
PDF Version:
Economic Instruments for Long-term Reductions in Energy-based Carbon Emissions
(2.15 Mb - 132 pages)
Date: 2005
ISBN: 1-894737-09-1
Preface |
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1. Background |
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1.1 Purpose of the Report |
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1.2 Ecological Fiscal Reform |
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2. Context: The New Energy Economy ? Canada's Opportunity |
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2.1 Global Energy Trends |
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2.2 Canada?s Opportunity |
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3. Context: Maximizing Overall Advantages to Society?Long-term Carbon Emission Reductions within an Integrated Policy Framework |
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3.1 Co-benefits: Nine Reasons for an Integrated Policy Framework |
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3.2 Why Long-term Carbon Emission Reductions Cannot be an Implied or Secondary Objective |
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4. Economic Instruments for Long-term Carbon Emission Reductions and Technology Development |
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4.1 Economic Instruments and Canada?s Climate Change Plan |
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4.2 Macroeconomic Impacts of Fiscal Policy to Promote Long-term Carbon Emission Reductions |
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4.3 General Findings: Using Economic Instruments for Long-term Carbon Emission Reductions and Technology Development |
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4.5 Transition Measures |
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4.5 Transition Measures |
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5. A Coordinated, Long-term Carbon Emission Reduction Strategy |
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5.1 Staging and Considerations for a Coordinated Technology Transition Strategy |
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6. Lessons: The Experience with Assessing Fiscal Instruments |
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6.1 Data Reliability and Comprehensiveness |
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6.2 Sensitivities |
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6.3 Technology Paths |
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6.5 Market Settings |
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6.5 Market Settings |
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6.6 Other Issues |
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7. Summary of Findings |
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9. Specific Findings: Industrial Energy Efficiency |
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9.1 Status of Industrial Energy Efficiency |
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9.2 Status of Industrial Energy Efficiency to 2030 Assuming Business as Usual |
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9.3 Industrial Energy Efficiency Scenarios to 2030 with Government Intervention |
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9.5 Policy Implications: Industrial Energy Efficiency |
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9.5 Policy Implications: Industrial Energy Efficiency |
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10. Specific Findings: Emerging Renewable Power Technologies |
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10.1 Status of the Emerging Renewable Power Sector |
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10.2 Status of the Emerging Renewable Power Sector to 2030 Assuming Business as Usual |
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10.3 Status of the Emerging Renewable Power Sector to 2030 with Government Intervention |
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11. Specific Findings: Hydrogen Energy |
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11.1 Status of the Hydrogen Energy Sector |
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11.2 Status of the Hydrogen Energy Sector to 2030 Assuming Business as Usual |
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11.3 Status of the Hydrogen Energy Sector to 2030 Assuming Government Intervention |
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11.5 Policy Implications: Hydrogen Energy |
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11.5 Policy Implications: Hydrogen Energy |
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12. Macroeconomic Impacts of the Proposed Measures |
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13. A Supporting Suite of Coordinated Economic Instruments |
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14. Summary of Recommendations, Part II |
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Industrial Energy Efficiency |
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Emerging Renewable Power Technologies |
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Hydrogen Case Study |
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Appendix A: Executive Summary: Case Study on Energy Efficiency |
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Appendix B: Executive Summary: Case Study on Renewable Grid-Power Electricity |
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Appendix C: Executive Summary: Case Study on Hydrogen Technologies |
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Appendix D: Selected Reading |
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Appendix E: Program Participants |
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Appendix F: Endnotes |
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Ecological Fiscal Reform and Energy Task Force Members |