A BRIGHT FUTURE How Some Countries Have Solved Climate Change and the Rest Can Follow Joshua S. Goldstein Staffan A. Qvist Steven Pinker (Fwd.) New York: PublicAffairs, January 2019 |
Rating: 5.0 High |
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ISBN-13 978-1-5417-2410-5 | ||||
ISBN-10 1-5417-2410-0 | 276pp. | HC/BWI | $26.00 |
There is a lot of data out there on the benefits and dangers of the various energy sources we have available today With a little research, we can easily determine average costs in $/kWh of coal vs. natural gas vs. solar vs. wind vs. nuclear in our area (because it is highly dependent on area.) Similarly, mortality rates for the various types of power can be readily discovered. While costing your own installation — say a personal solar array for your house — will be a lot more complicated, the broad-scale numbers are what's needed for the political choices we need to make on a statewide or nationwide basis.
Here I aim to provide some of those broad numbers in easy-to-digest form.
Based on a paper in The Lancet, here are the casualties for six types of energy source, normalized to number of deaths per Terawatt-hour (TWh.) In these figures, air pollution dominates, and hence coal dominates, because coal combustion releases large amounts of sulfur dioxide and nitrogen oxides, implicated in smog and acid rain, as well as particulates which cause respiratory diseases. Heavy metals and radioactives come out as well, but for the most part are captured and thus present more of a danger from the slurry ponds where they are stored.
Coal is responsible for the majority of accidents: mine explosions and cave-ins, black lung disease in miners, and the rare but devastating collapse of a coal-slurry pond.
Brown Coal | Hard Coal | Fuel Oil | Biomass (Incl. Air Pollution) |
Natural Gas | Nuclear (Markandya & Wilkinson (2007)) |
Wind | Hydropower | Solar | Biomass (Excl. Air Pollution) |
Nuclear (Sovacool et al. (2016)) |
Biofuels |
---|---|---|---|---|---|---|---|---|---|---|---|
32.72 | 24.62 | 18.43 | 4.63 | 2.821 | 0.074 | 0.035 | 0.024 | 0.019 | 0.016 | 0.01 | 0.005 |
Source: What are the safest sources of energy? (Hannah Ritchie, Our World in Data, 10 February 2020)
As Wikipedia points out, support for nuclear power increased during the 2000s due to promising new reactor designs and concerns over climate change. However, the advent of cheap natural gas freed by fracking made this fossil fuel, cleaner than coal or oil, a bargain compared to nuclear. As a result, the great majority of the new reactors planned in 2009 were canceled by 2013, and many of the existing plants whose licenses had been extended closed early. Nuclear energy production in the U.S. peaked in 2007 and has been declining ever since.
Not always was the plunging price for plentiful natural gas the sole reason for shuttering a nuclear plant; many required costly repairs that reached the point of being untenable. However, persistent local protests were and are a significant factor. Often based on misunderstandings of radioactivity and nuclear power, they nevertheless influenced local and state politicians — an influence the purveyors of natural gas were happy to bolster. Disasters such as the March 2011 meltdowns at Fukushima Daiichi in Japan also hurt the acceptance of nuclear power, even though no one died as a result of radiation from the leaking reactors.
Thus, the situation we have in the U.S. today: nuclear plants that are working well are being shut down by state mandate as a way to reduce risk, or by their operators as a way to cut costs. In many cases these closures are being sold as an opportunity for renewables to take up the slack. However, while renewables may contribute, natural gase is often the major part of the replacement. As Brad Plumer notes in Vox (Ref. 9), a large amount of carbon-free power will be replaced by fossil-fuel plants. A report by the Rhodium Group estimates 24 GW of clean power will be lost, with natural gase taking up three-quarters of the slack.
Plant Name |
Location | Rated Output (MWe) |
Status | Online Since: |
License Expires: |
Rationale | Energy Replaced by: |
---|---|---|---|---|---|---|---|
Pilgrim | Plymouth, MA | 75 | Closed 31 May 2019 | 1963 | 2032 | Economics | Natural gas |
Enrico Fermi 1 | Monroe, MI | 69 | Closed 11/29/1972 | 8/07/1966 | N/A | Partial meltdown | Natural gas |
Dresden 1 | Morris, IL | 197 | Closed 10/31/1978 | 7/04/1960 | N/A | Economics | Dresden 2 & 3 |
Hallam | Hallam, NE | 75 | Closed Sept. 1964 | July 1963 | N/A | Economics | Natural gas |
Fort St. Vrain | Platteville, CO | 330 | Decommissioned 1992 | 1979 | N/A | Economics, repair cost | Natural gas |
Connecticut Yankee | Haddam Neck, CT | 582 | Closed 12/05/1996 | 1/01/1968 | 12/05/1996 | Economics | Natural gas |
Big Rock Point | Charlevoix, MI | 67 | Closed 8/29/1997 | 3/29/1963 | N/A | Economics | Natural gas |
Crystal River 3 | Crystal River, FL | 860 | Closed 2/20/2013 | 3/13/1977 | N/A | Costly repairs | Natural gas, coal |
Kewaunee | Kewaunee, WI | 556 | Closed 5/07/2013 | 1973 | 2033 | Economics | Coal, natural gas |
San Onofre 2 & 3 | San Clemente, CA | 2,150 | Closed 6/12/2013 | 1983 & 1984 | N/A | Costly repairs | Natural gas |
Vermont Yankee | Vernon, VT | 620 | Closed 12/29/2014 | 1972 | 3/21/2032 | Economics | Natural gas |
Fort Calhoun | Blair, NE | 482 | Closed 10/24/2016 | 8/09/1973 | 8/09/2033 | Economics | 5,200,000 |
Oyster Creek | Oyster Creek, NJ | 636 | Closed 9/17/2018 | 12/23/1969 | 2029 | 5,200,000 | 5,200,000 |
Three Mile Island 1 | Middletown, PA | 819 | Closed 9/30/2019 | 9/02/1974 | 4/19/2034 | Economics; state bailout failed | 5,200,000 |
Clinton | Clinton, IL | 1,069 | Extended | 11/24/1987 | 9/29/2026 | State bailout | Slack |
Palisades | South Haven, MI | 805 | Extended to 2021 | 12/31/1971 | 3/24/2031 | State mandate | Slack |
Quad Cities 1 & 2 | Cordova, IL | 1,871 | Extended | Feb-Mar, 1973 | 12/14/2032 | State bailout | Slack |
Indian Point 2 | Buchanan, NY | 1,020 | Closed 4/30/2020 | 8/01/1974 | Sept. 2013 | Reason | Slack |
Davis-Besse | Oak Harbor, OH | 894 | To close 5/31/2020 | 7/31/1978 | 2037 | Reason | Slack |
Duane Arnold | Palo, IA | 601 | To close Sept. 2020 | 2/01/1975 | 2034 | Economic | Natural gas, wind |
Indian Point 3 | Buchanan, NY | 1,040 | To close 4/30/2021 | 8/30/1976 | 4/30/2025 | Reason | Slack |
Perry | North Perry, OH | 1,256 | To close 5/31/2021 | 11/18/1987 | 2037 | Reason | Slack |
Beaver Valley 1 | Shippingport, PA | 921 | To close 5/31/2021 | 10/01/1976 | 1/29/2036 | Reason | Slack |
Beaver Valley 2 | Shippingport, PA | 905 | To close 10/31/2021 | 11/17/1987 | 5/27/2047 | Reason | Slack |
Diablo Canyon 1 | Avila Beach, CA | 1,138 | To close 11/02/2024 | 5/07/1985 | N/A | Reason | Slack |
Diablo Canyon 2 | Avila Beach, CA | 1,118 | To close 8/26/2025 | 3/13/1986 | N/A | Reason | Slack |
Nine Mile Point 1 & 2 | Scriba, NY | 1890 | To close by 2027 | 1969, 1988 | 2029 | Gov. Cuomo bailout | N/A |
Fitzpatrick | Scriba, NY | 813 | To close by 2027 | 7/28/1975 | 2029 | Gov. Cuomo bailout | N/A |
R. E. Ginna | Ontario, NY | 580 | To close by 2027 | 6/01/1970 | 2029 | Gov. Cuomo bailout | Slack |
Seven reactors have been closed well short of the limit of their extended license; they contributed a total of 4,987 MWe. Ten more are slated to close in the near future (by 2025), losing us a total of 9,712 MWe of clean power.
So let me say it again: With climate change coming on apace, it makes no sense to replace properly working sources of clean power with fossil-fuel sources. Nuclear plants may well be unprofitable compared to a natural-gas burner, but this in my view is a good argument for subsidizing the nuclear plants. Do not forget that fossil fuels get massive subsidies. The state of New York understands. It's time for the rest of the nation to catch on too.
Consumer choices in the here-and-now depend on present-day costs of energy sources, which vary — sometimes widely — over time, and with location. The majority of consumers will no doubt choose familiar fossil fuels for the foreseeable future. But the interests of society depend on the relative costs of different energy facilities from beginning to end: the Life-Cycle Cost. James Conca explains:
"By life-cycle costs, I mean the total costs of building, operating, maintaining, fueling and decommissioning a thermal power plant, a solar array, a wind farm or hydroelectric dam over its life, that is, 15 years for a wind turbine, 40 years for a fossil fuel plant, 60 years for a nuclear plant, or 80 years for a large hydroelectric dam. Dividing those total costs by the amount of energy actually produced, not theoretically possible or installed capacity but actually produced, gives a life-cycle cost in ¢/kWhr. How we finance this cost is a totally different issue, one at which we generally fail as a society. "To calculate these costs, each source must be normalized to the capacity factor and the life span and a specific total energy production, such as 0.5 trillion kWhrs. Although it is cheap to build a gas-fired plant, the fuel costs become more important as time goes on, even with the present gas surge. While it is expensive to build a nuclear plant, the fuel costs are low and the capacity factor high, so the longer it operates the cheaper it becomes. Similarly for wind and solar, expensive to build but no fuel means the longer they are operating the cheaper they become. On the other hand, the longer fossil fuel plants operate the more expensive they become because it is all about the fuel." – James Conca, from Reference 1 |
Coal | Gas | Nuclear | Wind | Solar | Hydro |
---|---|---|---|---|---|
4.1 | 5.2 | 3.5 | 4.3 | 7.7 | 3.3 |