ASA August 1. Vandergraaf

Similar documents
Perspectives on Climate Change and Energy for Sustainable Development. Leena Srivastava Executive Director

IEEJ:November 2018 IEEJ2018 China Energy Outlook 2050 CNPC ETRI Tokyo Energy Outlook CNPC ETRI 2018

Geography of Natural Resources

Primary Energy Demand (PJ)

Primary Energy Demand (PJ)

E4 Training Week: Trends in industrial energy use. 9 June 2015 Kira West

The Outlook for Energy

Appendix J: Representation of Technology Systems in AIM-India

Estimation of GHG Mitigation Potential using MARKAL in Korea

Renewable Energy and APEC Energy Statistics

Steelmaking raw materials: Market and Policy Developments

Global Carbon Finance (GLOCAF) model

International Energy Outlook 2017

Chapter 1 Primary Energy Data

Energy and Resources-- Cuba

From Basic Energy Statistics to Energy Balances. Workshop on Energy Statistics. Karen Tréanton. International Energy Agency

International Energy Outlook 2017

Page General Information on Thailand 1. World Energy 2-3. Production 4-5. Imports & Exports 6-9. Supply Transformation

The Outlook for Energy: A View to 2040

QUESTION? Do you guys think energy should be looked at as more of a privilege or a necessity? Is more really necessary?

Clean Energy America February

World Energy Outlook Bo Diczfalusy, Näringsdepartementet

Reducing GHG Emissions in Canada: A Formidable Challenge

ANALYTICAL HIGHLIGHTS

Annual Energy Outlook 2015

World primary energy consumption in 2002 By Nagy Árpád Zoltán, Budapest

ALTERNATIVES IN THE USA

2015 EDMC Handbook of Japan s & World Energy & Economic Statistics CONTENTS

Evaluations on the emission reduction efforts of Nationally Determined Contributions (NDCs) in cost metrics

Annual Energy Outlook 2018

Energy Use Data Handbook, 1990 AND 1996 TO 2002

Nuclear power has a bright outlook and information on uranium resources is our duty.

Long Term Energy System Analysis of Japan after March 11, 2011

ENERGY. Crude oil, natural gas, pitch, coal, wind, water, sun (solar energy), uranium, plutonium (nuclear energy)

The importance of energy and activity data for technology policy modeling

Earth s Energy and Mineral Resources

List of CDP-ACS. The full list of classifications for CDP s Activity Classification System (CDP-ACS)

Electricity and Petroleum Industries:

Energy Technology Perspectives 2017 The Role of CCS in Deep Decarbonisation Scenarios

Uranium: Critical to a Clean Energy Future

ENERGY BALANCE COMPILATION

TABLE OF CONTENTS. Highlights

The Outlook for Energy: A View to 2040

The Outlook for Energy

Nuclear Energy. Weston M. Stacey Callaway Regents Professor Nuclear and Radiological Engineering Program Georgia Institute of Technology

Estimation of Taiwan s CO 2 Emissions Related to Fossil Fuel Combustion A Sectoral Approach

Energy and Energy Resources

Current and Future Greenhouse Gas Emissions Associated with Electricity Generation in China: Implications for Electric Vehicles

Preparing GHG Inventory for Energy Sector. An Overview. Sumana Bhattacharya NATCOM PMC

The Outlook for Energy:

GHG Emissions from Energy Industry

"Energy Scenarios: Harnessing Renewable Energy for Sustainable Development and Energy Security in Nepal

Renewable vs. Non-Renewable Energy

What Are Our Alternatives, If Fossil Fuels Are a Problem?

STATISTICAL ENERGY BALANCES

Chapter 11 Industry and Energy

Growth in China s resource use still has some way to go

World Energy Outlook Dr Fatih Birol Chief Economist, IEA Istanbul, 20 December

Nuclear Energy Fundamentals

& ECONOMIC STATISTICS

I. CITIES AND ENERGY USE

Global Energy Production & Use 101

Ipad Presentation: TFR Operation in SADC Countries

NRC-NMA Uranium Workshop

Revenue Freight Traffic Statistics for the Major North American Railroads. Weekly Railroad Traffic

& ECONOMIC STATISTICS

Structural Concerns with the Global Nuclear Fuel Industry May 31,

Section 1. Electricity and Your Community. What Do You See? Think About It. Investigate. Learning Outcomes

The Use of Energy Statistics to Estimate CO 2 emissions

The Use of Energy Statistics to Estimate CO 2 emissions

Now, click on the word Oil (Petroleum) 2.) How is oil formed? 3.) What does the word petroleum mean? 4.) Describe crude oil and where it is found.

NONRENEWABLE RESOURCES

World on the Edge - Supporting Data for Chapter 8

What is Energy? Renewable. Units of Energy. Non-Renewable. Chapter 22 Energy Resources

Energy Scenario for Achieving Sustainability in Indian Situations

Directorate: Energy Planning and Development

UNECE Expert Group on Resource Classification April, 2016

Nevada Test Site. Occurrence of U

IEEJ 2019, All rights reserved

Seventh Biennial Report on Progress toward Greenhouse Gas Reduction Goals

Energy Use in Ontario

Solar Energy - Securing Energy for Tomorrow Today. Dr. Vinay Hasabnis

Chapter: 1.1 Energy Scenario

Now, click on the word Oil (Petroleum) 2.) How is oil formed? 3.) Describe crude oil and where it is found.

Where do we want to go?

Overview of energy efficiency in industry and utilities

Energy Consumption. Energy Use. U.S. Energy Consumption by Sector, Who Uses Energy? Residential and Commercial Sectors

Clipore Final Conference Key Results September 2011 CEPS/Brussels. How can Sweden meet its Climate Objectives for 2050?

The Nuclear Fuel Cycle and its Market An Overview

Applied Energy 84 (2007) Energy and exergy analyses of energy consumptions in the industrial sector in South Africa

Alternate Energy. Remember. Beyond the Age of Oil. Needs to be versatile: Heat Electricity Generation Transportation (Internal combustion or other)

Economic and Energy Outlook of Japan for FY2015

CONVERSION FACTORS. Standard conversion factors for liquid fuels are determined on the basis of the net calorific value for each product.

Outlook for Bulk Commodities John Barber Bureau of Resources and Energy Economics. bree.gov.au

Chapter 11 Industry and Energy

XLVII Meeting of OLADE Ministers Buenos Aires, 6 December Paul Simons, IEA Deputy Executive Director

Modeling China s Energy Future

Earth at Night Composite, Source: NASA, Astronomy Picture of the Day, Nov. 27, 2000 (

CONVERSION FACTORS. Standard conversion factors for liquid fuels are determined on the basis of the net calorific value for each product.

Transcription:

From each according to his ability; to each according to his needs Karl Marx s s dictum as applied to energy supply and consumption in a North American context T T Vandergraaf e-mail: ttveiv@mts.net Vandergraaf ASA - 2008 August 1

historic US retail gasoline prices 4.50 4.00 3.50 3.00 $/US gln 2.50 2.00 1.50 1.00 0.50 0.00 07/05/90 22/03/93 05/02/96 21/12/98 05/11/01 20/09/04 06/08/07 DATE source: www. eia.doe.gov Vandergraaf ASA - 2008 August 2

historic crude oil prices 160 140 120 2007$ actual $ 100 $ US 80 60 40 20 0 1860 1890 1920 1950 1980 2010 YEAR source:www.bp.com/statisticalreview Vandergraaf ASA - 2008 August 3

world primary energy consumption 12000 10000 8000 MT (oil) EQUIV 6000 4000 2000 0 1965 1970 1975 1980 1985 1990 1995 2000 2005 2010 YEAR source:www.bp.com/statisticalreview Vandergraaf ASA - 2008 August 4

primary energy consumption 5000 4500 4000 3500 Canada US European Union Former Soviet Union Other EMEs MT (oil) EQUIV 3000 2500 2000 1500 1000 500 0 1965 1970 1975 1980 1985 1990 1995 2000 2005 2010 YEAR source:www.bp.com/statisticalreview Vandergraaf ASA - 2008 August 5

oil production and consumption 1000 4000 900 3500 million tonnes (US, Canada) 800 700 600 500 400 300 200 US - production Canada - production US - consumption Canada - consumption World - production 3000 2500 2000 1500 1000 million tonnes (World) 100 500 0 0 1965 1970 1975 1980 1985 1990 1995 2000 2005 2010 YEAR Vandergraaf ASA - 2008 August 6

questions how much energy do we use? in what form does the energy come? what do we do with the energy? can we substitute different forms of energy and, if so, how? what can we, as Christians, do to minimize the impact of rising fuel prices on the poor? Vandergraaf ASA - 2008 August 7

primary energy consumption by fuel 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% Hydro Nuclear Coal Natural Gas Oil US Hydro Nuclear Coal Natural Gas Oil Canada Vandergraaf ASA - 2008 August 8

data for Canada source: Office of Energy Efficiency, Natural Resources Canada (http://oee.nrcan.gc.ca/english/index.cfm?attr=0) Vandergraaf ASA - 2008 August 9

secondary energy use (PJ) Electricity Natural Gas 5% 5% 4% 1% 23% Motor Gasoline Oil Aviation Gasoline Aviation Turbo Fuel Petroleum Coke and Still Gas 3% 0% Wood Waste and Pulping Liquor Other Fuels(coal, LPG, coke etc.) Residential Wood 17% 25% 17% Vandergraaf ASA - 2008 August 10

secondary energy use by sector 12% 1% 2% 17% Residential Commercial/Institutional Industrial Passenger Transportation Freight Transportation Off-Road Agriculture 16% 14% 38% Vandergraaf ASA - 2008 August 11

recent fossil fuel prices US$/million BTU 14 12 10 8 6 4 LNG (Japan) NG (EU) NG (UK) NG (US) NG (Canada) Crude Oil 2 0 1984 1988 1992 1996 2000 2004 2008 YEAR source:www.bp.com/statisticalreview Vandergraaf ASA - 2008 August 12

Canada: projected population to 2031 43 Actual 26% Low Population [million] 39 35 Medium High 18% 9% 31 27 1990 2000 2010 2020 2030 YEAR Vandergraaf ASA - 2008 August 13

residential (17%) Electricity Natural Gas Heating Oil Other Wood Space Heating Water Heating Appliances Lighting Space Cooling m2/household 130 128 126 124 122 replacing oil used in home heating with electricity would reduce annual oil consumption by ~2 mmt or ~2% of Canada s oil consumption 120 1990 1993 1996 1999 2002 2005 YEAR Vandergraaf ASA - 2008 August 14

commercial institutional (14%) Electricity Natural Gas Light Fuel Oil and Kerosene Heavy Fuel Oil Steam Other Space Heating Water Heating Auxiliary Equipment Auxiliary Motors Lighting Space Cooling Street Lighting replacing all fossil fuels except natural gas with electricity would reduce annual oil consumption by ~4 mmt or ~4% of Canada s oil consumption Vandergraaf ASA - 2008 August 15

industrial (38%) Vandergraaf ASA - 2008 August 16

industrial users of 90% of energy Upstream Mining Pulp Mills Petroleum Refining Newsprint Mills Iron and Steel Primary Production of Alumina and Aluminum Other Manufacturing n.e.c. Paper Mills (except newsprint) Other Non-Ferrous Smelting and Refining Other Basic Chemicals Industry Wood Products Industries Cement Industry Paperboard Mills Construction Petrochemical Industry Fertilizer Industry Fabricated Metal Products Industries Other Food Industries Iron Mines Potash Mines Plastic Products Industries 0 100 200 300 400 500 600 PJ Vandergraaf ASA - 2008 August 17

transportation (29%) passenger Electricity Natural Gas Motor Gas oline Diesel Fuel Oil Aviation Gasoline freight Natural Gas Motor Gasoline Diesel Fuel Oil Light Fuel Oil and Kerosene Heavy Fuel Oil Aviation Gasoline Aviation Turbo Fuel Aviation Turbo Fuel Propane Propane Vandergraaf ASA - 2008 August 18

efficiency of freight transportation Ton-km/MJ 5.0 4.5 4.0 3.5 3.0 2.5 2.0 1.5 1.0 0.5 shifting 25% of road transport to rail will free up 4.6 mmt of oil or 4.6% of Canada s oil consumption electrifying 25% of the railway frees up another 0.54 mmt of oil this energy could be generated by one 878 MW(e) CANDU nuclear power plant, [e.g. Darlington-1] 0.0 road air rail marine Vandergraaf ASA - 2008 August 19

potential ways forward residential increase use of electricity emphasize smaller homes centralization - decentralization commercial/institutional increase use of electricity emphasize smaller homes build smaller churches transportation shift road transport to rail electrify the railway system (if Russia can electrify the Trans Siberia Railroad, we should be able to electrify the railroads in Canada and the US) redesign cities to be more compact so that [electric] urban transit is viable electricity generation hydroelectric nuclear wind power solar, where applicable Vandergraaf ASA - 2008 August 20

assumptions fossil fuel resources are finite energy prices will not decrease or not decrease substantially energy consumption will stabilize populations in US and Canada will increase increased energy efficiency is offset by population increase electorate is not altruistic Vandergraaf ASA - 2008 August 21

electricity generation 9% Energy Use by Energy Source (PJ) 6% 33% Hydro Coal Nuclear Natural Gas Other Fossil Fuel 14% Electricity Generated by Energy Source (GWh) 4% Hydro 6% Coal Nuclear Natural Gas Other Fossil Fuel 25% 59% 17% 27% If all current electrical energy generated by oil were replaced by nuclear or renewable fuels, the offset would be equivalent to ~4 million barrels of oil and reduce Canada s oil consumption by ~4% Vandergraaf ASA - 2008 August 22

potential challenges time frame do we have sufficient time to make the shift without adversely affecting the people at the economic margins? financial costs of infrastructure building new hydro dams, nuclear power plants, wind generators, solar panels is expensive; if it were not, they would have been built earlier hydro (Manitoba Hydro) Wuskwatim: 200 MW; 1600 M$ [8 k$/kw] Conawapa: 1485 MW; 5000 M$ [>3 k$/kw] Pointe du Bois refurbishing; 120 MW; 800M$ [~7 k$/kw] nuclear generating stations: 1000 MW; 1000 3000 M$ [1 3 k$/kw] wind generators: 1.5 MW; ~3M$ [2 k$/kw] Sarnia [ON] solar farm: 40 MW; 300M$ (+ 365 ha!) [7.5 k$/kw] as energy becomes more expensive, construction costs increase (concrete for dams) energy costs of infrastructure socio-environmental costs NIMBY impact on environment impact on aboriginal societies Vandergraaf ASA - 2008 August 23

increased residential electricity use reference community 10 000 residences 25 000 inhabitants only oil replaced by 1.5 MW wind turbines 8.4 x 10 4 GJ required 2 wind turbines @ 100% availability 5 7 wind turbines @ 25 33% availability all fossil fuel replaced by wind turbines 6.8 x 10 5 GJ additional energy required 14 wind turbines @ 100% availability 40 60 wind turbines @ 25 33% availability full service electrical supply required from utilities Vandergraaf ASA - 2008 August 24

nuclear power? Country Installed Capacity [MW(e)] Under Construction [MW(e)] Planned [MW(e)] USA 99 049 0 15 000 Canada 12 652 1 500 3 300 UK 11 035 0 0 France 63 473 1 630 0 Japan 47 577 2 285 14 945 R O Korea 17 533 3 000 6 600 P R China 8 587 6 700 26 320 Vandergraaf ASA - 2008 August 25

known recoverable U resources (130$( 130$ US/kg) tonnes U % Australia 1,143,000 24% Kazakhstan 816,000 17% Canada 444,000 9% USA 342,000 7% South Africa 341,000 7% Namibia 282,000 6% Brazil 279,000 6% Niger 225,000 5% Russian Fed. 172,000 4% Uzbekistan 116,000 2% Ukraine 90,000 2% Jordan 79,000 2% India 67,000 1% China 60,000 1% Other 287,000 6% World total 4,743,000 Source [U] (ppm) High-grade ore - 2% U, 20,000 Low-grade ore - 0.1% U, 1,000 Granite 4 Sedimentary rock 2 Earth's continental crust (av) 2.8 Seawater 0.003 Current usage ~68 000 tu/a source: http://www.world-nuclear.org/info/inf75.htm Vandergraaf ASA - 2008 August 26

what about the future? fuel as price of U increases, lower grade ore deposits will be become more economic to mine 3.8 Mt U @ 80$US/kgU 4.7 Mt U @ 130$US/kg U doubling the cost of U increases cost per kwh by ~20% extract U from seawater reprocessing reactor design improved efficiency (>30%) breeder reactors Vandergraaf ASA - 2008 August 27

methods to extent fissile supply fast breeder reactors (Pu-U MOX) convert fertile 238 U to fissile 239 Pu USA (EBR-1 [Idaho]) France (Phenix, SuperPhenix) Japan (Monju) UK (Dounray) thermal breeder reactors (Th-U MOX) convert fertile 232 Th to fissile 233 U India (research only) Canada (research only) Vandergraaf ASA - 2008 August 28

concluding comments societies based on current energy mix cannot be sustained drastic decrease in energy consumption cannot be legislated fossil fuels should be reserved as chemical feedstock and to power mobile equipment considerable energy savings can be achieved by shifting transportation from road to rail residential and commercial/institutional sectors should increase use of electricity electricity generation should include a mix of nuclear and renewable (wind, solar) sources time to take action was ten years ago Vandergraaf ASA - 2008 August 29

Thank You Vandergraaf ASA - 2008 August 30