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Nuclear Power: The Safe and Green Alternative
Alexander P Powers Environmental Management
Senior SPEA Honors Thesis Presentation
Gregory Crouch IUB Radiation Safety Officer
Clinical Professor SPEA Faculty Mentor
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Coal has been the number one source for electrical power in the United States
for many years. The fact that the coal has been so readily available has made it the
main producer of electricity in the past centuries. The amount of coal that is located in
America has made it an obvious and relatively cheap choice in producing electricity
since it was discovered. However, just because it has always been the main producer of
electricity, does it mean that it is the best way to do so? I do not believe that this the
case. Coal burning has major negatives to health and the environment that I will
discuss later in this paper. Because of these negatives I believe that our dependence on
coal should change in the future in order to live in a way that protects the environment
and public health. We have explored a couple of options to coal the last couple of
decades. These have included solar and wind energy as green energy producer. These
have proved to be a much cleaner way to produce energy. They use things such as sun
light and wind that occur naturally to produce energy. However, I do not believe these
are viable ways to rival coal as a way to lead the country in producing energy. Both of
these techniques just are not energy intensive enough to replace coal burning. Nor are
they consistently reliable (if the sun is not shinning or the wind is not blowing then we
are not producing any electricity). This is why I do not believe these are viable options.
However, there is one type of energy production that could rival coal as a viable option.
. This type of energy production is nuclear power.
Nuclear power is not a new technique to produce energy but it is not widely used
in the United States. Just when this technology started to take off in the 1970s in the
United States soaring construction costs and the Three Mile Island accident happened. I
will touch on these topics later in the paper. However, because we have so much coal in
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the United States, we will never completely stop burning coal. We could however stop
expanding the growth of coal produced electricity, and instead turn our focus and
resources into building more nuclear power plants.
Current Energy Production
Currently in the United States, we use several different ways to produce
electricity. As I have mentioned before the main producer is coal at about 49 percent.
Nuclear power contributes about 20 percent of the nation’s electrical energy. Below is a
pie chart that represents the sources of electrical production in the United States.
Figure 1.
(surviving the future)
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Nuclear Power- How it works
Before comparing the two ways of producing energy, I will briefly explain how
nuclear power works. There are two ways to produce nuclear energy. These two ways
are fission and fusion. The fission process works with kinetic energy, which can be
turned into heat. First there is an isotope of Uranium called Uranium 235 (U-235). U-235
and plutonium nuclei are split or fission. The kinetic energy of the fission fragments are
converted into heat as the fragments are slowed. Finally the heat is then converted into
energy (Carbon, 1997 9). This process is explained in the figure below.
Figure 2: Fission Process
(Carbon,1997)
The other way to produce nuclear energy is fusion. In the fusion process the
nuclei of atoms combine or “fuse” together. By doing this mass is lost in the process. In
turn that mass is converted into energy. However, fusion is much harder to do on earth
than fission. One reason for this is because it takes extremely hot temperatures to work,
a lot hotter than temperatures on earth. We have not been successful at using fusion to
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make power. Since the need for clean energy is here and now, this type of nuclear
energy will not be talked about (Carbon, 1997,10).
Public Health
In this paper I am going to compare coal and nuclear power on three criteria to
show that nuclear power is a viable choice for future energy production needs. These
three criteria are public health, environmental impact, and economic impact. The first
criteria I will discuss is public health. Along with public health I will include safety. I
believe this is an important topic in dealing with nuclear power. Over the years nuclear
power has been construed in a negative light. One of the main reasons for this is
because people feel that nuclear power is not safe. The big reason for this is because
the accident at Chernobyl in the 1980s. Chernobyl was a nuclear reactor in the Soviet
Union that had a nuclear meltdown, which released high levels of radiation. As one
would imagine the media picked up this story and ran with it. The British Daily Mail’s
front page read “2000 Dead” and the New York Post said that fifteen thousand bodies
were bulldozed into nuclear waste pits. Also, the National Resources Defense Council
speculated that over a hundred thousand cancers would develop (Bate). As one can
see, the media stepped in and really fuelled the pandemonium around this accident.
The predictions that were expressed overshot the actual effects. The World Nuclear
Association confirms that the accident directly killed thirty people, not 2000. Also, the
only clear health danger cited by the World Health Organization was an estimated
increase of seven hundred thyroid cancers. Out of this increase, there were ten deaths
(“Chernobyl”). The figures and estimates of the deaths that were caused by the
accident at Chernobyl were exaggerated. This overestimating by the media and other
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officials caused people in the world and the United States to be scared of nuclear
power. This contributed to the decline in nuclear power exploration and expansion in
the United State. . The important thing to remember about the accident at Chernobyl is
that it was all preventable. The problems that caused the meltdown were caused by
human error. The people that were working at the plant do not do the proper things that
could have helped stop the problem. Nuclear power was unfairly judged by the media,
and that influenced the public opinion that nuclear power is unsafe.
However, the facts support that nuclear power is safe. Not only is it safe, but it is
safer than the burning of coal. It is not only safer to the people surrounding the plant
and in its proximity, but it is also safer for the workers involved with the mining and
burning of coal. The burning of coal produces thousands of tons of hazardous waste. A
state of the art coal powered power plant in Milliken, New York puts out eighteen
thousand tons of sulfuric acid, seven thousand tons of nitric acid, and three and a half
million tons of carbon dioxide each and every year it is operational (Wharton). All of
these pollutants in the air are detrimental to human health (I will discuss the
environmental effects of this later). For example, the pollution emitted from a single coal
plant in Massachusetts are estimated to cause about one hundred and sixty premature
deaths, one thousand seven hundred emergency respiratory ailments, and forty-three
thousand asthma attacks (Wharton). Even though you cannot actually see these
pollutants, they are still very harmful to the human population. We as a society are
breathing in these harmful air particles and it is taking a toll on our health.
Nuclear power plants, however, do not emit these harmful substances into the
air. Nuclear power plants emit small amount of radiation. These small amounts of
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radiation have uncertain effects but they are not cause for excessive or abnormal fears
(Carbon, 1997, 33). The nuclear plants emit low levels of radiation but inside the plant
there are high levels of radiation. Because of this the plants take extreme caution when
dealing with the radiation and the entire nuclear process. The source of radiation in
these plants is the fuel rods. These rods are made of an alloy of metal zirconium which
contains the fuel pellets (Carbon, 1997, 36). The problem lies in that fact that these rods
get very hot. If these rods get too hot they can melt and release their radioactive
contents. . Because of this, the nuclear plants have many plans in keeping these rods
cool. To keep these rods cool, high quality water pumps are used. There are backup
pumps and several supplies of water are installed to provide cooling incase the regular
pumps and water supply fails. These pumps run on electricity. For safety reasons,
several different power sources are provided to run the pumps. In case one goes out,
there are others to take over and cool the rods. In the newer plants the cooling water is
stored in tanks where the water flows with gravity, so it can cool the rods for a couple
hours while the pumps are being fixed (Carbon,1997, 37). As one can see there are
many different ways to keep the fuel rods from melting and releasing large amounts of
radiation into the environment. However, these are not the only safety precautions. The
plant itself is designed to keep radiation in. There is cladding around the fuel rod made
from a “high-melting-point-material” and a thick steel container in which the core is
located. Then each reactor is enclosed in a building (Carbon, 1997,38) . These
buildings are shown in the figure below.
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Figure 3. Water Reactor Containment Barriers
(Carbon,1997,38)
There are many safe guards to protect from large amount of radiation escaping into the
environment. Because of these techniques and building specifications it is very unlikely
that radiation from a nuclear power plant would escape and cause significant harm to
the citizens near the plant. The safety of these nuclear plants is very good. This
suggests that the fear associated with nuclear power plants does not correspond to the
actual risk.. We need to acknowledge the fact, however, that the radiation generated at
these plants can cause problems in the event of a catastrophic accident (such as
Fukishims). However, we have developed extensive controls to reduce the chances of
an accident in these nuclear plants occurring.
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Occupational Safety
Not only are nuclear power plants safe, they have safer working conditions inside
the plant then compared to the coal industry. There have been a number of studies
done over the past 50 years comparing coal burned power plants and other types of
energy production. Below is a study that ranges from the year 1970 to 1992. It
compares the fatal accidents in four of the primary energy production (World Nuclear
Association, 2011).
Figure 4.
Fuel Immediate fatalities
1970-92 Who?
Normalized to deaths
per TWy* electricity
Coal 6400 workers 342
Natural gas 1200 workers & public 85
Hydro 4000 public 883
Nuclear 31 workers 8
(World Nuclear Association, 2011)
As one can see form this table Nuclear power is the safest compared to the other types
of energy production. One reason that the coal number of fatalities is so high is because
of the large amount of it that needs to be mined and transported to the power stations
(World Nuclear Association, 2011). It takes so much coal to make energy, so therefore
the accidents are going to add up. Below is another table accounting for some of the
energy related accidents since 1975.
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Figure 5.
Place year number killed comments
Banqiao, Shimantan & others, Henan, China 1975 30,000 immediate hydro-electric dam failure (18 GWe lost), 230,000 total deaths resulting
Machhu II, India 1979 2500 hydro-electric dam failure
Hirakud, India 1980 1000 hydro-electric dam failure
Donbass, Ukraine 1980 68 coal mine methane explosion
Guavio, Colombia 1983 160 hydro-electric dam failure
Nile R, Egypt 1983 317 LPG explosion
Cubatao, Brazil 1984 508 oil fire
Mexico City 1984 498 LPG explosion
Tbilisi, Russia 1984 100 gas explosion
northern Taiwan 1984 314 3 coal mine accidents
Chernobyl, Ukraine 1986 31+ nuclear reactor accident
Piper Alpha, North Sea 1988 167 explosion of offshore oil platform
Asha-ufa, Siberia 1989 600 LPG pipeline leak and fire
Dobrnja, Yugoslavia 1990 178 coal mine
Hongton, Shaanxi, China 1991 147 coal mine methane explosion
Belci, Romania 1991 116 hydro-electric dam failure
Kozlu, Turkey 1992 272 coal mine methane explosion
Cuenca, Equador 1993 200 coal mine
Durunkha, Egypt 1994 580 fuel depot hit by lightning
Seoul, S.Korea 1994 500 oil fire
Taegu, S.Korea 1995 100 oil & gas explosion
Spitsbergen, Russia 1996 141 coal mine
Datong, Shanxi, China 1996 114 coal mine methane explosion
Fushun, China 1997 68 coal mine methane explosion
Kuzbass, Siberia 1997 67 coal mine methane explosion
Huainan, China 1997 89 coal mine methane explosion
Donbass, Ukraine 1998 63 coal mine methane explosion
Liaoning, China 1998 71 coal mine methane explosion
Warri, Nigeria 1998 500+ oil pipeline leak and fire
Donbass, Ukraine 1999 50+ coal mine methane explosion
Donbass, Ukraine 2000 80 coal mine methane explosion
Muchonggou, Guizhou, China 2000 162 coal mine methane explosion
Zasyadko, Donetsk, E.Ukraine 2001 55 coal mine methane explosion
Jixi, China 2002 124 coal mine methane explosion
Gaoqiao, SW China 2003 234 gas well blowout with H2S
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Place year number killed comments Kuzbass, Russia 2004 47 coal mine methane explosion
Donbass, Ukraine 2004 36 coal mine methane explosion
Henan, China 2004 148 coal mine methane explosion
Chenjiashan, Shaanxi, China 2004 166 coal mine methane explosion
Sunjiawan, Liaoning, China 2005 215 Coal mine methane explosion
Shenlong/ Fukang, Xinjiang, China 2005 83 Coal mine methane explosion
Xingning, Guangdong, China 2005 123 Coal mine flooding
Dongfeng, Heilongjiang, China 2005 171 Coal mine methane explosion or flooding
Bhatdih, Jharkhand, India 2006 54 Coal mine methane explosion
Ulyanovskaya, Kuzbass, Russia 2007 108 Coal mine methane or dust explosion
Zhangzhuang, Shandong, China 2007 181 Coal mine flooding
Zasyadko, Donetsk, E.Ukraine 2007 101 Coal mine methane explosion
Linfen city, Shanxi, China 2007 105 Coal mine methane explosion
Tunlan, Shanxi, China 2009 78 Coal mine methane explosion
Sayano-Shushenskaya, Khakassia, Russia 2009 75 Hydro power plant turbine disintegration
Hegang city, Heilongjiang, China 2009 108 Coal mine methane explosion
Sangha, Bukavu, Congo 2010 235 Fuel tanker accident and fire
(World Nuclear Association, 2011)
As one can see from the table above there are many accidents that are
associated with energy production. The accidents that are dealing with coal mines are
the majority. The coal mine accident with the highest number of deaths is 314. Compare
those numbers with one accident killing 31 people from a nuclear reactor, there is a big
difference. That one accident is the accident at Chernobyl, which everyone thought,
was so bad. The lowest coal accident on the list is 47 deaths. That means the one and
only nuclear reactor accident took less lives then the smallest coal mine accident. By
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looking at this data one can see that nuclear power can be and is safer than coal power,
if done correctly.
Environmental Impact
The next criteria to focus on when comparing these two types of energy
production is the environmental impact they can have on the planet. The production of
coal is known to have a significant effect on the earth’s environment. The burning of
coal produces some alarming pollutants into the atmosphere. According to the Union of
Concerned Scientists a typical coal plant generates the following amounts of air
pollutants in a given year:
3.7 million tons of carbon dioxide
10,000 tons of sulfur dioxide
10,200 tons of nitrogen oxide
500 tons of small airborne particles
220 tons of hydrocarbons
720 tons of carbon monoxide
170 pounds of mercury
225 pounds of arsenic
114 pounds of lead
(Freese et al. 2006)
All of these pollutants come from just one coal burning power plant of about 594
that are in the United States (sourcewatch). As one can see that all of the air pollutants
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that come from all of the coal power plants add up to a huge amount of total air pollution
that is being put into the atmosphere. Also these totals are not added up from all the
years from burning coal, they are from just one year. This means that all of the years
that coal has been burned in this country have added up to a significant impact on the
earth and its atmosphere.
Nuclear power plants on the other hand are on the opposite side of the pollution
spectrum. Nuclear power plants do not produce any pollutants in the air. That means
that nuclear power plants have minimal environmental impact on the earth, during
normal operation. That is a big difference when you compare that to the amount of
pollutants that coal powered power plants produce from the burning of coal. This is why
nuclear power is a green alternative to burning coal to produce energy.
Another aspect of environmental impact that is of major concern to the people of
this country and the world is global warming or also called climate change. Climate
change is a problem that everyone in the world should be focused and concerned
about. The main cause of this climate change is believed to be caused by greenhouse
gases. The most notable of these greenhouses gases is carbon dioxide. The
understanding of the processes is becoming clearer; we still do not know how much
carbon dioxide the earth can hold. Scientists are concerned about the steady build-up of
carbon dioxide in the atmosphere. The build-up is happening as the earth’s carbon-
based fossil fuels, i.e. coal, are being burned and being converted to atmospheric
carbon dioxide. The USA National Academy of Sciences report concluded that “the
primary limiting factor on energy production from fossil fuels over the next few centuries
may turn out to be the climatic effects of the release of carbon dioxide"(World Nuclear
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Association, 2011). This science is becoming more and more accepted by most people
in the United States. Below is a graph of greenhouse gas emissions from the production
of electricity.
Figure 6
(World
Nuclear Association, 2011)
One can see form the graph that coal has a very large emission of greenhouse
gases, whereas nuclear power does not emit any greenhouse gas directly. Nuclear
energy only produces greenhouse gases indirectly from the mining of uranium. Nuclear
energy leaves no carbon footprint on the world. Since a major problem concerning the
world in climate change, nuclear power is smart way to help manage that problem.
Nuclear energy will help fight the major problem of climate change.
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Economic Impact
The third piece of criteria I will compare coal and nuclear energy on is economic
impact. This criterion is not as cut and dry as the other two I have compared thus far in
this paper. On the other two nuclear power is the clear winner in my opinion, however
this topic is not as black and white as the others. Nuclear power plants take a lot of
money to get started and up and running. In the past there have been several nuclear
power plants that were prevented from being finished because of lack of money. Coal
plants are less expensive to build then nuclear plants and also coal is readily available.
However when these nuclear power plants are built, it is a whole different story. These
existing nuclear power plants run at a very low cost. Their operations and maintenance
and fuel costs are at the low end and make very suitable base-load power suppliers
(World Nuclear Association, 2011). Below is a graphical representation how the cost of
operating the different types of electricity production.
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Figure 7
(World Nuclear Association, 2011)
As one can see that nuclear power is the cheapest way to produce energy as far
as operating costs. Coal is inexpensive as well, but according to these numbers nuclear
power is still cheaper than coal. Even though it is expensive to get started, once you
have the plant built and ready to run, nuclear power is inexpensive to operate and
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maintain. Because the fact of that nuclear power plants cost so much to get up and
running, it puts them at a significant disadvantage compared to coal burning power
plants on this issue. However, they do not take into account the fact that people are
experiencing health problems an even death because of the burning of coal. This price
the public pays for their health is not shown as a cost of burning coal, but I believe it
should be. If these costs would be added into the coal costs, it would significantly make
coal more expensive.
Past Problems: Nuclear Energy
As I have briefly touched on before, nuclear power has faced some problems
before in the past to cause it to be turned away from. The first cause for problems with
nuclear power is the cost of building and getting the nuclear power plants started. As I
have mentioned before, the cost of building a nuclear power plant is a negative when
comparing it to other ways to produce energy. In the 1970s when nuclear power was
getting started in the United States, construction of of many nuclear power plants that
stopped because of cost overruns. . One can find an example of this in this vary state.
In 1977 construction of a nuclear power plant near Madison Indiana was started. This
was called Marble Hill and this nuclear plant was supposed to provide power to eastern
and southern Indiana, along with possibly parts of Kentucky (wthr.com,2011). However
this plan was never realized. About seven years after they started construction on the
nuclear power plant, it was halted. In 1984 the construction was stopped and it was
estimated that over $2.8 billion was spent on the plant. Reportedly an additional $4
billion was needed to finish the project. The company that was in charge of the building,
PSI, would have gone into bankruptcy if Marble Hill was completed (Abandoned, 2011).
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This is just one of many examples of this happening over the United States. Nuclear
power plants were started and money was put into them, but along the way the money
for the project would stop, forcing them to stop building. Obviously this was a problem
for the spread and use of nuclear power. If people could not afford to build them, how
were we as a society supposed to use nuclear power as a major energy source? This is
why the overall cost of building nuclear power plants caused a problem in the past.
The next problem that arose that caused problems with nuclear power really
taking off in the United Sates where the accidents, more specifically one accident. This
accident was at Three Mile Island near Harrisburg Pennsylvania. In 1979 the nuclear
power plant Three Mile Island experienced a cooling malfunction that caused some of
the reactor core to melt in one of the reactors. The TMI-2 reactor was destroyed. Even
though there were some radioactive gases that were released during the accident, there
was not enough radioactive gas to cause a dose that was above the background levels
that the residents experience regularly. There were no harmful health effects or injuries
caused by this accident at Three Mile Island (World Nuclear Association, 2012). The
contamination barriers did their job and prevented large amounts of radioactive gases
into the environment. Even though there was no adverse health effects form this
accident and the barriers worked the way they were supposed to, the public was
unsettled by this accident. This accident really hurt the chances of nuclear power to
succeed in the United States because of the fear that goes along with nuclear energy.
By the time the Chernobyl accident happened in 1986, the chance of expansion of
nuclear power in the United States was all but over.
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The next problem that hurt the takeoff of nuclear power in the United States is
very closely related to the accidents. This problem is public fear of nuclear energy. The
development of the atomic bomb really fueled this fear of nuclear power. Because of the
dangers and destruction people have seen from atomic bombs, they are fearful from
anything that has to do with nuclear energy. Even though the public fear of nuclear
energy is not a rational one, the media fuels this fear with the coverage of nuclear
power. Reporting on things that can scare people is known to get ratings and more
money. This is why still today, where there is information about nuclear safety, people
are scared of nuclear energy.
The last problem that has helped impede the growth of nuclear power has been
the lack of need for it in the past. With the abundance of coal that this country has, there
was no real need to have nuclear power. We as a country have had the luxury of
enough coal to produce as much energy has we want. This along with the other
problems that I have mentioned in this paper, nuclear power was just not worth it to our
country to put in the resources to make nuclear power grow to the levels originally
projected. . The abundance of coal made the decision easier, when faced with the other
mentioned problems, to stop the growth of nuclear power because coal could handle
the load of or energy needs. At that time in our country’s history there was just not the
need for nuclear energy like I believe there is today.
Current Issues of Nuclear Powers
There are some current problems that we as a country must face and resolve if
we want to expand our nuclear power. The first issue is what to do with the High Level
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Waste that these nuclear power plants produce. Since these plants to not emit their
byproducts into the environment like coal plants, they produce solid hazardous waste
that needs to be disposed of. This problem is not a volume problem but yet a hazardous
and timely one. That means that there is not a lot of hazardous waste produced but the
hazardous waste that is produced is radioactive for thousands of years. There is a
relatively a small volume of waste( the entire world only produces 210,000 metric tons)
that comes out from these nuclear power plants compared to that of coal plants (World
Nuclear Assiocation). The problem however is that people cannot come into contact
with this waste (Cohen). The waste is radioactive for thousands of years and even
millions of years. This means that people cannot come into contact with the waste for a
very long time or they will be negatively affected and even be killed. The problem is of
time and isolation. There needs to be a plan for how and where these plants can store
the waste that they produce. One suggested plan was to put this waste site in Yucca
Mountain which is located in Nevada. The original plan was to put all of the nuclear
waste from nuclear power plants in lined tunnels under Yucca Mountain. However, this
plan was shut down. The plan was never put into place because people felt like Yucca
Mountain was not a safe place and also people in the area did not want to be around
the site. I believe we need to decide on a safe place where we can store this waste.
Right now most facilities store there wastes on site at each nuclear power plant. This is
not a permanent answer to this storage problem (cbsnews). With safety as a big
concern, storing the waste in this way is not the safest possible way. We need to come
up with a plan to have a disposal site where this waste can stay safely for a long time.
By having a specific disposal site, we can know exactly where the waste is and also
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help protect it better. I believe that the best way to dispose of the high level waste is to
put it into a disposal site. The Blue Ribbon Commission released on January their
recommendations to the energy council. The main part of their focus was on three
points, which were: “First, the Commission recommends a consent‐based approach to
siting future nuclear waste storage and disposal facilities, noting that trying to force such
facilities on unwilling states, tribes and communities has not worked. Second, the
Commission recommends that the responsibility for the nation’s nuclear
waste management program be transferred to a new organization; one that is
independent of the DOE and dedicated solely to assuring the safe storage and ultimate
disposal of spent nuclear waste fuel and high level radioactive waste. Third, the
Commission recommends changing the manner in which fees being paid into the
Nuclear Waste Fund – about $750 million a year – are treated in the federal budget
to ensure they are being set aside and available for use as Congress initially intended.”
(brc) With the technology we have today, we can make a place safe from this
hazardous waste from ever coming into contact with the human population.
The next current issue that needs to be resolved with nuclear power is of big
concern, especially in this day and age. This issue is dealing with security, more
specially terrorism. Since the waste that these nuclear power plants produce is
extremely hazardous, we have to be careful who can access it. If this waste gets into
the wrong hands, it could be dangerous to our safety. If we put in a disposal site where
all the waste from nuclear power plants like I mentioned earlier in this paper, that means
that all of this waste would be traveling across the United Sates on highways and
railways. This is an issue that needs to be addressed. With the waste traveling there will
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need to be a safety plan and measures in place. Large cities and towns need to be
taken into account and try to be avoided with transporting this waste to the future
disposal site. Security on these routes would be a big concern for this nuclear power
issue. This also includes technology that is spill safe if something happens to the
container that is hauling the waste. The containers that haul the high level waste from
the nuclear plant to the disposal site will have to be able to sustain and stay structurally
sound in case there is an accident. If the waste is split into the environment it could
have major consequences to the environment and the people that are around the
accident. This technology already exists. We can ship the spent fuel in shipment casts.
These casts are a steel cylinder that is closed to a leak-tight containment. Then each
cylinder is surrounded by more steel, concrete or other material that would stop
radiation from escaping and effecting workers and the public (NRC). Safety and
security is an issue that needs to be talked about and taken care of if we want to
expand nuclear energy for our future energy needs. We already have the technology to
make this happen, we as a country just have to come together and find a way to make it
work.
The last issue that needs to be address with nuclear power is the public
perception of nuclear power. Even though we have been using some nuclear power
plant since the 1970s the overall public perception of it is not a positive one. The public
still looks negatively on nuclear energy and the radiation that is associated with it.
Because of movies like “The Hulk” and other entertainment that focuses on radiation,
the public is scared of nuclear energy. We as a country are going to have to change the
public perception of nuclear energy if it is going to grow in the future. If politicians
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cannot approve the growth of nuclear energy because their constituents are against it, it
would cause an obvious problem for nuclear power expansion.
Even though I have mentioned that there are potential issues that have to be
addressed if nuclear power is going to grow, these issues can be successfully
addressed. If the public can be educated on the facts about nuclear power, I believe
their opinion would change. If we can change the public opinion to a more positive one,
the other issues I have brought up will be taken care of. If we can show that the steps
that are taken to project the public work, it can be a huge step in the right direction of
expanding nuclear power for future energy use.
Indiana vs. Illinois
The bordering states of Indiana and Illinois states are on complete opposite sides
of the nuclear power spectrum. Illinois is what was envisioned for the future of nuclear
power back when it started in the 1970s. Illinois uses nuclear power to produce half of
its energy needs. Indiana on the other hand does not have any nuclear power, and
depends heavily on the burning of coal. These facts can be attributed to the air pollution
in both states. Indiana, according to the National Resources Defense Council, is the
sixth most toxic state in the United Sates. This means that the air quality in Indiana is
ranked the sixth worst in the country. The main reason for Indiana ranking so high on
this list is because of their coal burning (NRDC, 2009). “Coal-fired and oil-fired power
plants emitted nearly 26.8 million pounds of harmful toxins — which includes mercury,
sulfur dioxide, nitrogen dioxide and particulate matter — into the air, accounting for 68
percent of Indiana’s air pollution, according to the study.” (tribstar). As one can see form
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the results of the study and what I have mentioned earlier in this paper that the burning
of coal is a major player in air pollution. Also Indiana accounts for about 7 percent of the
country’s air pollution (tribstar). On the other hand Illinois is ranked 17th of the air
pollution toxic state list. Obviously this is still not very good but it is much better than
Indiana. “Power plants are the biggest industrial toxic air polluters in our country, putting
children and families at risk by dumping deadly and dangerous poisons into the air we
breathe," (NRDC. 2009). So one can only imagine what Illinois’ air pollution problem if
they did not use nuclear power in the amount that they do. Nuclear power plants do not
emit the air toxicants that coal plants do, helping with air pollution. By comparing
Indiana and Illinois, one can see what was supposed to happen all around the nation
with nuclear power playing a major role in energy production. Illinois is a state that relies
on nuclear power, the way it was planned to be in the 1970s with the start of nuclear
power. Indiana on the other hand is a symbol of the nuclear power resistance. With
coal being abundant in Indiana and the problems that nuclear power had in its early
stages, it was easier and more popular to just have coal by the major producer of
energy. That is how two states that border each other are on the two opposite sides of
the spectrum in the nuclear power production of energy.
Conclusion
Nuclear power has been used in this country for electrical energy production
since the 1960s. However, coal has always been the number one producer of electrical
energy in this country. After comparing the two different types of energy production on
three criteria which are, public health, environmental, and economic impact, I have
found that nuclear power is a viable option for future energy production. I have found
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that nuclear power is safer, cleaner, and cheaper to run then the burning of coal to
produce energy. I am not saying, however, that nuclear power should or will replace
coal as an energy source. We as I country have too many coal plants and too much
coal for that to happen. My point is this, as our country continues to grow, we are going
to need to produce more energy. In order to halt the expansion of coal produced energy
(and its associated health and environmental effects), we must expand nuclear power to
cover our energy needs. By expanding our nuclear power production rather than coal
power production, we can help protect the earth and the health of people on it.
26
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