https://en.wikipedia.org/wiki/List_of_nuclear_and_radiation_...
https://en.wikipedia.org/wiki/List_of_nuclear_and_radiation_...
Chernobyl was extremely poorly engineered, Soviet Union style. Its major flaw was no containment vessel.
Even then, it took real effort to make it fail, and it was all totally unnecessary. It was probably the worst testing-related disaster in history.
50 years of operation of hundreds of plants. We could have had a repeat of all of the accidents every year and it would still be one of the safest alternatives.
Heck, we could have Chernobyl every year, and even based on the current worst case estimates of reduced life expectancy and counting every one of them as a death, we'd still not compensate for 1 Banqiao failure, or more than 1-2 years worth of coal.
But we're not having a Chernobyl every year. What we are having is vast numbers of preventable deaths due to other types of power generation.
We're talking millions dead over the last 50 years due to other types of plants.
If you look at what medicine deemed as safe, the limits were reduced every couple of years.
Specifically - "we could have Chernobyl every year ... we'd still not compensate for more than 1-2 years worth of coal"
But there are many nuclear plants around the world that have operated with no problems. As I said, I'm no expert.
https://en.wikipedia.org/wiki/Environmental_impact_of_the_co...
http://www.sourcewatch.org/index.php/Coal_mining_disasters
Carbon capture and storage technologies also lead to 50..91% increased electricity costs.
http://www.ekopolitan.com/climate/ccs-five-reports-realistic...
Clean coal and clean fission are arguably about as likely, and would be about as expensive.
Why bother, when you have solar?
Because solar is intermittent, and isn't practical at all in many parts of the world. The true environmental impact of nuclear is also arguably less, since solar requires a lot of space per watt produced by comparison.
Next-gen nuclear reactor designs from Thorcon Power, Terrestrial and others are very near to perfectly safe, and also produce much less long-term nuclear waste than current designs. There will be an ongoing need for clean, high-density electricity sources.
The solution to that is simple, use less power at night. I.e. don't make so much aluminum when there is no sun or wind. We could decide as a society to trade a few percent of our wealth for using much less coal and nuclear if we wanted (and if our society were organized in a rational fashion).
Also: don't heat with electricty, but use e.g. solar thermal or geothermal power.
Efficiency is great and should be encouraged. We still need increasing amounts of reliable, plentiful and cheap energy going forward. You may be willing to accept a diminishing standard of living, most are not.
We do little to even try to contain that waste, and aren't even thinking of how to 'get rid of it'. The effects of this radioactive waste are totally overshadowed by the 'conventional' pollution caused by coal.
Nuclear power compares pretty well to this.
In addition to the reductions in air quality that kills vast number of people from coal - multiple Chernobyls every year - coal plants also pump vast quantities of radioactive material like uranium particles into the air.
While nuclear waste would pump nastier stuff into the air, we know the consequences from Chernobyl: Most of it gets washed out and end up on the ground quickly. What doesn't tend to be less dangerous particulates like cesium isotopes.
I'm obviously not suggesting that we should, but that pretty much the worst possible scenarios you can think of would still end up killing fewer people than coal.
But all things considered I have given up hope that that will actually work in time - thus, by all means, we should build as-safe-as-possible nuclear power plants for the transition and shut down all fossil-based versions immediately.
A long half-life means that the material is less radioactive. By definition.
Soon it will be possible to use most of the waste as fuel:
"...Fast reactors can "burn" long lasting nuclear transuranic waste (TRU) waste components (actinides: reactor-grade plutonium and minor actinides), turning liabilities into assets. Another major waste component, fission products (FP), would stabilize at a lower level of radioactivity than the original natural uranium ore it was attained from in two to four centuries, rather than tens of thousands of years"
http://en.wikipedia.org/wiki/Integral_fast_reactor
The worry people have about nuclear waste is greatly overblown. The amounts generated are small and in a relatively short amount of time we can use most of this "waste" to generate electricity.
As a comparison, how does coal waste compare to that?
"Coal ash – the waste material left after coal is burned – contains arsenic, mercury, lead, and over a dozen other heavy metals, many of them toxic."
http://www.psr.org/environment-and-health/code-black/coal-as...
"The study found that levels of radioactivity in the ash were up to five times higher than in normal soil," https://phys.org/news/2015-09-radioactive-contaminants-coal-...
How much coal waste is produced per year? Is it small enough to deal with easily?
"According to the American Coal Ash Association's Coal Combustion Product Production & Use Survey Report, nearly 130 million tons of coal ash was generated in 2014."
https://www.epa.gov/coalash/coal-ash-basics#03
Has any of the general public been killed though coal waste disasters? Lots of times:
http://www.catawbariverkeeper.org/issues/coal-ash-1/coal-ash...
NASA has estimated that using nuclear power has saved an estimated 1.8 million lives that would have been lost if the power has been replaced by fossil fuels: https://climate.nasa.gov/news/903/coal-and-gas-are-far-more-...
(And yes, I know the people who oppose nuclear power usually will say they don't like coal and natural gas either, but we are going to need a predictable, reliable form of base load power for a long time. One of these three ways of generating electricity has much fewer health consequences than the other.)