Analyze

Characterization of loss from Vietnam’s Ministry of Agriculture & Rural Development (2018) within the Evaluation report on 10-year implementation of the national policy for ‘agriculture-farmer-rural’ development [ not available for public view] 

• “ Aquaculture households have lost 503.2 million VND (21,665 USD) per household, then fishing households 231.3 million VND (9958 USD) per household, and coastal service households 102.0 million VND (4392 USD) per household. Note that both fishing and fish farming households lost similar por- tions of their total income, around 98 percent, even as fish farmers earn twice that of fishers on average. In a country where the average yearly income of rural households is 130 million VND or 5600 USD (MARD, 2018), losing an average of 11,000 USD per household is significant.” (Truong et al., 2021, p 8). 

Characterization of the compensation schemes adopted by Vietnam’s government:

• “According to a report by the Ministry of Finance in 2018, the government was able to provide direct cash compensation to those identified as being impacted across the four provinces. This is because of the settlement with Taiwan Formosa Plastics for 500 million USD. In addition to cash, the Vietnamese government gave over 19,000 tonnes of rice to impacted households in the months following the fish kill. The government also monitored the safety of the ocean environment. As the government switched from emergency relief to recovery support, more programmes were introduced including loan access, scholarships for students, health insurance, and livelihood training pro- grammes. The government also worked with the Fisheries Department and other relevant agencies to build environmental monitoring systems, provide consistent water testing, engage in food safety monitoring, and work towards ecological rehabilitation of aquatic stocks” (Truong et al., 2021, p 10). 

UT Austin’s engineering department has a strong national presence in energy science. The department's Energy Institute hosts a 15 week-long Energy Symposium with weekly, public seminars given by energy experts from around the country. However, this institution has deep historical ties to Texas’ oil and gas industry. See the following quote from their website “The University of Texas at Austin has long been renowned for research related to the state’s iconic oil and gas industry. Today, university researchers are pioneering innovative ways to produce energy from these traditional sources in an environmentally responsible manner, while also leading groundbreaking research into new technologies that cover the entire spectrum of energy.”

Solar Austin holds a happy hour once a month, which includes a presentation by a local professional working in solar or clean energy. Recent speakers include representatives of the Clean Energy Credit Union, the Austin SHINES project, and UT Austin’s Director of Sustainability. CleanTx has a monthly “power lunch” mixer, where you can meet with local clean-tech industry leaders and entrepreneurs for networking purposes. UT’s Webber Energy Group has “Clean Energy Beers” once a month, where local members of the community get together to discuss clean energy and energy transition in Austin. (Usually) Dr. Michael Webber and members of his team at UT Austin are there and available for conversation as well.

Austin Energy holds a Resource Planning Working Group every two years (or so), where a “representative sample” of the community come together to learn about Austin’s energy needs and resources, and to develop a plan for transitioning to lower-carbon fuels, but within the affordability rates set by the state.

I followed up on this article by reading more about the Fukushima disaster, and I looked further into existing regulatory bodies such as the IAEA and and the Nuclear Energy Institute.

I was interested in the accident prevention mindset that was in part responsible for poor response in past nuclear disasters, so I read a summary of “Risk Society: Towards a New Modernity” by Ulrich Beck, one of the works referenced in Schmid’s article. The summary better explained the societal mindset that a structured set of rules for accident prevention was more reliable that the educated and adaptive individual.

The point that nuclear fallout does not respect national borders was interesting, so I looked at how far fallout can spread. An understanding of how geological features such as mountains and valleys can affect the immediate fallout zone and how meteorological conditions can spread eradiated rain and wind significant distances from the site of a disaster would be important in the evacuation and clean up portions of a response to a nuclear disaster.

When discussing existing emergency response groups that dealt with nuclear disasters the IAEA was mentioned several times, so I looked into the organization and their responsibilities. Although the IEAE is often criticized for its slow response to Fukushima, I found that the organizations stated missions are to promote peaceful use of nuclear energy and safety, as well as implement safeguards meant to prevent military use of nuclear energy. While an international group that works closely with the nuclear industry it does not claim any responsibility to act as a response group to nuclear disasters.

The details from the text I looked up to further my understanding of the topic and/or emergency response was the author and how educated she was to speak on this matter, the 3 mile island disaster and what was done at the event for containment, and if emergency nuclear response teams need to exist today.

How did it happen (complete failure of cooling and reactors exploding)?

                Although the earthquakes killed workers and wreaked havoc on the region, Japans’ nuclear plants were not compromised by the quakes. It was only the tsunami that caused Fukushima Daiichi 1, 2, & 3’s power and backup power to fail, allowing the meltdown to take place. (world-nuclearworld-nuclear.org)

Why was radioactive water released (purposely) into the ocean as stated in the article?

                I found that although radioactive water was never “purposely” released into the ocean, it was known that it would likely end up there due to the failed ocean barrier wall. The water came from the necessity of cooling the overheated plants to prevent further meltdown and further contamination. The good news is that by 2012 the water within the Fukushima area was considered non-toxic to humans and aquatic species that live there. However, less is known about the effects on the ocean floor, where the radioactive matter is collecting in the sediment. (cnn.com)

What (if anything) has been done to further an international response team/plan for nuclear emergencies?

While my research turned up little results for international response development, countries have been developing their own response teams. China will have a national nuclear response team by the end of 2018 which will be made up of over 300 individuals and will meet the requirements for an international response team. This makes sense since China has more nuclear power plants than any other country in the world and expects to double its nuclear output over the next few decades. (firedirect.net) 

1. I looked into the concept of 'atomic priests' mentioned on page 196 that was proposed in the 70s and 80s. I thought it was interesting when I saw it in the title of this report, and was interested to learn more about what it was. 

2. I looked on the website for IEAE, since Schmid mentioned them for a while. 

3. I also looked into the organization Spetsatom, since it sounded as if they may have had the right idea about emergency response, but the website is in Russian, so it was hard to understand. 

Reading this article caused me to do a further, in depth research on Fukushima and what actions led to what happened as well as what transpired during and after the disaster. I also looked into what the emergency response standards are today which led me to look at the IEAE website. I also looked at some of the author's other works that she wrote as well as explored and researched the WANO site. I read into their operating experiences and read about their pledge to "Prevent events by learning from others." I found out they have implemented "significant operating experience reports" as well as "significant event reports" and numerous other safe guards. 

I read through some information about the Bhopal disaster that was referenced, as well as some other articles on Nuclear Emergency Response. I also found some protocol for Radiation Sickness. (Potassium Iodide, Prussian Blue, DTPA, Neupogen)

I did an initial google search of “international emergency response team” and found an article from IAEA about the establishment of RANET. This network was made operational by Finland, Mexico, Sri Lanka, and the US in 2008. I found this interesting as, aside from the US, none of these countries were what I thought of in terms of nuclear energy production. Upon further research, I learned that Mexico has two reactors supporting 4% of their electricity and Finland has four reactors providing 30% of the total electricity. At the time of the article, Sri Lanka had no future in nuclear power, but in 2015 signed a deal with India to jointly create a new power plant.