Nuclear waste can cause high radiation levels and raise temperature levels.

Energy Business Review 12th Jan 2018,…..waste generated from nuclear activity can pose a
significant risk to the environment if it is not properly handled. The vast
amount of nuclear waste created by power plants can lead to high radiation
and raise temperature levels.

In recent years, many concerns have been raised over the disposal of radioactive waste and harmful radiations fromthe nuclear plants. The transmission of this radiation can cause a
potential damage to the surrounding atmosphere.

The cost of managing the nuclear waste is also high. The damage that could be caused by mishandling
of nuclear waste came into focus after the occurrence of Fukushima nuclear
disaster in Japan in 2011. Spent fuel rods were found to be one of the
major causes of the radioactive emission for the accident that took place
at the Fukushima Daiichi Nuclear Power Plant in Fukushima, Japan.

The nuclear accident is considered as the second worst nuclear disaster in the
world. The Kyshtym nuclear disaster also occurred as a result of a
radioactive contamination accident that took place on 29 September 1957 at
Mayak, a plutonium manufacturing facility Russia for nuclear fuel
reprocessing plant of the Soviet Union. A failure of the cooling system
used for one of the tanks containing about 70–80 tons of liquid
radioactive waste had led to the accident. The event resulted in hundreds
of deaths of the people staying in nearby villages to the production site.

The various types of nuclear waste include uranium tailings, transuranic
(TRU) waste, low-level nuclear waste, intermediate-level waste, high-level
waste and spent fuel rods.
http://nuclear.energy-business-review.com/news/major-types-nuclear-waste-that-produce-radioactivity-6027468

1.This Month

United Nations: demasking the Torture of Julian Assange. Rico Brouwer and Nils Melzer

Three Mile Island (& Fukushima) Lies & Cover-Ups w/ Gundersen & Wasserman

Energy efficiency – theme for July 2019

Energy efficiency represents the single largest potential contributor to global emissions reduction, according to the International Energy Agency (IEA 2017). It should be a key part of the global energy strategy, for several reasons:

It could reduce global electric demand by more than 20 per cent, based on current rates in the U.S. power sector, while maintaining high levels of services such as heating and lighting.
It avoids the need for increased energy, capacity and grid services, making it the least expensive way to decarbonise at scale.
It can reduce carbon dioxide emissions by billions of tonnes.

A dramatic example of the power of energy efficiency is lighting. In 2017 the United States passed the milestone of 1 billion LED and CFL lights installed, avoiding 142 million tonnes a year of carbon dioxide emissions, at a cost of about $7 per ton of avoided carbon dioxide. In contrast, the cumulative installed capacity of rooftop solar reached 8,000 MW in 2017, saving 8 million tonnes a year of carbon dioxide, at a cost of $360 per ton. Lighting efficiency thus yielded almost 18 times the avoided carbon dioxide, at about 2 per cent the cost per ton of rooftop solar.

Google provides another example of the power of energy efficiency. Its data centers now use 50 per cent less energy than the average data center, according to the company. Google also developed an improved chip, the TPU, which performs 83 times better than standard CPUs. The new chip allowed Google to reduce power consumption at its data centers by a factor of 30—far exceeding the effect on Google’s carbon footprint of all of the company’s renewable energy purchases. ” – John Woolard, Eco Business, 10 June 2019

nuclear-news

The News That Matters about the Nuclear Industry Fukushima Chernobyl Mayak Three Mile Island Atomic Testing Radiation Isotope