Author Archives: pbowersox

ANS Fusion Energy Division statement on FY2013 energy appropriations

The American Nuclear Society’s Fusion Energy Division submitted a statement on April 10 to the U.S. Senate Appropriations Committee and the U.S. Senate Subcommittee on Energy and Water Development. The statement addresses certain proposed fiscal year (FY) 2013 appropriations for the U.S. Department of Energy.

The statement is below and can be downloaded in PDF format by clicking HERE.

Dear Chairman Inouye, Vice Chairman Cochran, Chairman Feinstein and Ranking Member Alexander:

The Fusion Energy Division of the American Nuclear Society has a Statement on the proposed Department of Energy budget and its adverse effect upon the future of fusion energy research and development:

Research in nuclear fusion represents one of very few options for a long-term effort to provide a major source of energy to replace climate-changing fossil fuels and ensure America’s energy security. Fusion is one of the fundamental energy sources of the universe. Providing energy from fusion is a major scientific and technological challenge—in fact, it is one of the National Academy of Engineering’s Grand Challenges for Engineering—but the rewards of fusion power and the benefits of a sustainable domestic source of energy make it a challenge worth taking.

The FY-2013 budget request by the Administration endangers the United States’ domestic fusion program as well as our country’s scientific contributions to the ITER international project. If implemented, the FY-2013 budget reductions will deal a major blow to the U.S. fusion research program and further erode its leadership position. After years of operating on minimal budgets and essentially level funding, the U.S. fusion program cannot withstand the proposed reductions without significant negative impacts.

Control room of MIT’s Alcator C-Mod fusion reactor

U.S. fusion researchers were told a few years ago that there would be some “belt tightening” to divert fusion research funds to ITER construction. Without any quantitative guidance from the DOE on belt tightening, there was speculation that it might be 1% or perhaps even as much as a 5% budget reduction for a few years. The FY-2013 budget, however, proposes a 16% reduction ($45 million) of fusion research funds, and DOE officials have given warnings that reductions of up to $100 million more will be needed in the coming years. If the Administration’s FY-2013 budget is implemented, the DOE will close a unique fusion experiment, the Alcator machine at MIT, and the students and staff there will be dispersed. Deeper cuts in the future will disperse even more staff and students at institutions around the country who would use the ITER results, and greatly reduce the number of American engineers and scientists who will be educated and trained in fusion.

We urge the U.S. to consistently and adequately support the fusion research program as outlined in the Energy Policy Act of 2005 (PL 109-58, sec 971-972) and reverse this position, restoring funds to the domestic fusion program budget and, separately, fully funding this nation’s promised annual ITER contribution.

The path to discover commercially viable fusion energy is one of the grand scientific challenges of our time. With ITER under construction to explore the science of burning plasmas, the world fusion program is poised to enter its final era of research. Other nations, including China, the European Union, Japan, Russia, and South Korea, are forging ahead rapidly, investing heavily in their domestic fusion programs and in educating the next generation of fusion researchers. They are fully supporting ITER as well. The U.S. has consistently led the fusion field and should continue to do so. American leadership in fusion energy would be in the best interests of the U.S. and science itself.

Sincerely,
Lee Cadwallader
Chair, Fusion Energy Division

Minami Yoda
Vice-Chair, Fusion Energy Division

cc: The Honorable Dr. Steven Chu, Secretary of Energy
       The Honorable Dr. William Brinkman, Director, Office of Science, Department of Energy
      Dr. Edmund Synakowski, Associate Director, Office of Fusion Energy Sciences, Department of Energy

ANS Idaho Section hosting Social Media Workshop

 Mark your calendar: April 19

The Idaho Section of the American Nuclear Society is sponsoring an all-day event ”Communicating in a Changing World: Social Media Workshop” on Thursday, April 19, at the Shilo Inn in Idaho Falls.

“This workshop is for those new to social media and those wanting to learn a few new tricks,” said Teri Ehresman, communications lead for Idaho National Laboratory (INL), when ANS Nuclear Cafe asked about the upcoming event. “Idaho National Laboratory has a new Nuclear App and, as part of the workshop, we want to share some of our lessons learned from that experience. We see social media as a way to help spread our message.”

The day-long workshop features a lineup of speakers, including Sarah Lane, co-host of iPad Today, the Social Hour, and Tech News Today at TWiT.tv.

The workshop schedule follows:

  • 8:30 a.m. — Registration
  • 9 a.m. — Speaker: Sarah Lane, San Francisco. She will speak on “Communications and Media at TWiT.tv, ” “Understanding Social Media,” and “Where are Social Media and Technology Going?”
  • 12 p.m. — Lunch Speaker: Mike Hart, president of CommDesigns of Idaho Falls, will discuss “Reaching Mobile Audiences and the Challenges of App Development.” He will share lessons learned from developing the nuclear application for INL.
  • 1 p.m. — Speaker: Cynthia Price, Richmond, Va., director of Communications for ChildFund International, will discuss “Developing and Using Social Media at ChildFund.org”
  • 2 p.m. —  Speaker: Misty Benjamin, INL Communications  and Government Affairs, will discuss “Leveraging Social Media at Idaho National Laboratory”
  • 3 p.m. — Speaker: Paul Menser, Idaho Falls blogger, will discuss “The Transition from Traditional to Social Media at the Local Level”
  • 4:00 – 4:30 — Social time

Live-tweeting: #ifsocialmedia

RSVP to Teri Ehresman, Teri.Ehresman@inl.gov , or call her at 208-526-7785.

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Introducing the Nuclear Literacy Project

By Suzy Hobbs Baker

The Nuclear Literacy Project is a new website and outreach initiative geared toward reaching young, non-technical audiences with information about nuclear energy. You can check out the site at http://www.nuclearliteracy.org/.

The nonprofit organization PopAtomic Studios has teamed with a committee of nuclear communications and technical experts, as well as Atomic Insights, American Crane, and StratusFX, to develop an innovative and effective approach to energy education.

The website is just the beginning. We are also working to create new apps, games, and quizzes to reach young people through venues that they already know and enjoy using. You want to learn 10 important facts about nuclear energy in about 1 minute? No problem! Just check out our Fast Facts page. Want to test your nuclear knowledge on your smart phone? Try one of our Quizzes.

We are also very excited to offer a first hand look into the lives of young nuclear engineers through our “Nuclear All Stars” blog. Click on the picture to read about Anagha, a California girl who is headed to the southeast to pursue her education in nuclear engineering and make the world a better place.

We invite you to visit the new website and to get involved. You can support this effort in many ways:

  • Share this article with friends and colleagues.
  • Connect with us on Facebook and Twitter.
  • Make a tax-deductible donation to the Nuclear Literacy Project.
  • Ask your company or organization to make an annual contribution to NLP.

You can read more about the history of the NLP at http://nuclearliteracy.org/about/history/

______________________

Hobbs Baker

Suzy Hobbs Baker is the executive director of PopAtomic Studios, a non-profit organization dedicated to using the power of visual and liberal arts to enrich the discussion on nuclear energy. Hobbs Baker is an ANS member and a frequent contributor to ANS Nuclear Cafe.

ANS Friday Nuclear Matinee triple feature

A triple feature for your viewing pleasure! Here we go:

1. Those atomic clocks can really come in handy! “GPS, Relativity, and Nuclear Detection” from Minute Physics:

 

2. This video regards Einstein’s mathematically proving the existence of atoms (and their size) in 1905. For more detail, see this Nuclear Pioneers post from the ANS Nuclear Cafe. Here’s the video “Albert Einstein: The Size and Existence of Atoms” from Minute Physics:

 

3. The ANS Student Conference in Las Vegas is now well underway. Here is one of the many beautiful videos shown during ANS President Eric Loewen’s keynote address at the conference, courtesy of Suzanne Hobbs Baker of PopAtomic Studios. Full-screen mode recommended:

The ANS Student Section of the University of Illinois at Urbana-Champaign

American Nuclear Society President Eric Loewen visited the ANS student section at the University of Illinois on Tuesday, March 27, followed by dinner with the Central Illinois ANS local section. This event was part of Loewen’s “March Madness” speaking tour, building toward the 2012 ANS Student Conference (which begins today in Las Vegas).  The occasion gave ANS Nuclear Cafe a chance to catch up with Valentyn Bykov, president of the ANS student section at the University of Illinois at Urbana-Champaign, to discuss the section and its activities.

Social events

Bykov

Valentyn Bykov:  “During their first two years, our students take general science and engineering classes along with students from all the other engineering disciplines. Since we are a small department (the Department of Nuclear, Plasma, and Radiological Engineering/NPRE), we don’t see many of our fellow nuclear engineers during these two years. Therefore, ANS organizes many social events, providing opportunities for students to become better acquainted and to get to know each other. This also allows underclassmen to meet the upperclassmen, who often pass down advice based on their experience.”

Excursions

Dr. Loewen addresses the Illinois ANS Student Section

“We take many engineering classes, most of which are highly technical. So, it’s very difficult to keep in mind the overall big picture. During the more difficult semesters, we all need to be reminded why we’re doing all this in the first place and recharge our motivation. So our ANS section organizes numerous trips to nuclear power plants and national labs, where students can see what kind of work nuclear engineers can do after they graduate, as well as understand how all these individual components come together, forming the big picture. It’s also a good opportunity to get industry insight on various topics,” said Bykov.

Outreach

“We also make sure to stay in touch with people outside of the NPRE Department and the nuclear industry, mainly through outreach events,” he said. “When we ask people what do they think when you say nuclear engineering, we often hear about nuclear weapons, cooling towers and (more often than you’d think) the dangerous health effects of the microwave oven radiation. Our goal is to inform and educate, but also share why we think that industry nuclear is an interesting and exciting career choice. We organize and assist with several
Boy Scout merit badge events, in which young scouts learn about the science behind nuclear power and related career choices. Every March we hold a series of presentations and demonstrations during our university’s Engineering Open House, a two-day event during which over 20,000 people visit campus to see various engineering demonstrations created by students. We also try to be present during various non-engineering events; for example, we have a table next to other student organizations in an event organized during ‘Mom’s weekend,’ in which students and their visiting moms can see what various student organizations do on campus. Being usually the only engineering organization present at this event, our interactive demonstration of radiation sources is very popular. Many of the visitors want to talk to us about the nature of our organization, potential careers, details about Fukushima, and nuclear power in general.”

The future

Valentyn Bikov, Arthur Talpaert, Jason Peck, Eric Loewen, Thomas Dolan, Rizwan Uddin, Barclay Jones

“As for long-term goals for our student section, at this point our membership is composed almost entirely of nuclear engineering majors, most of whom are undergraduates,” he said. “One of our long-term goals is to get more people involved, especially from other departments. We believe that the nature of our trips and many of our other events would be relevant to other departments. We are also trying to extend our involvement with other departments (i.e., by cooperating with other students organization on joined events) and non-engineering events (like the aforementioned Mom’s weekend interactive presentation).”

“I feel like our ANS section is an extension of the students,” he added. “At times various students have an idea for an interesting event or a trip, and instead of leaving the organization up to the (already very busy) NPRE Department, the ANS student section will step in and handle everything. This gives more power to the students, as we can spread the word about the idea and, if there’s sufficient interest, organize the whole event without the need for the department to get involved.”

“This also works the other way around, when the department asks or encourages us to set up an event to address an issue they hear about in student feedback forms,” Bykov said. “For example, our university no longer has an operating research reactor (our TRIGA was shut down in the 1990s for political reasons), and many students feel they are ‘missing out’ on the related experiments. Therefore, our department suggested—and our student section is currently in the process of organizing—a visit to a university that has a working reactor, during which we would perform experiments to gain experience with research reactor operation. The goal is to first organize the visit and offer it simply as a trip for interested individuals, then in the future hopefully make the visit more frequently than once in a semester, and offer some kind of course credit in return. The whole effort is currently organized primarily between our ANS student section and the ANS student section at the Missouri University of Science and Technology.”

The Illinois ANS student section board. top row: Michael Cunningham, Robert Geringer, Cody Morrow; bottom row: Talisa Chambers, Valentyn Bykov, Molly Bilderback; not pictured: Carlos Altamirano

In closing

“Our ANS student section provides many ways in which to get involved, whether it’s getting advice on what class to take next semester, meeting nuclear power plant workers and talking to them about their job, practicing one’s teaching abilities with children and the general public, or one of the many other ways for nuclear engineering students to get involved in the ‘big picture,’” he concluded.

 

 

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The Nuclear Debate On the Road

By Howard Shaffer

Plymouth, Massachusetts, “America’s Home Town,” is the place where the pilgrims landed, and is also the home of the Pilgrim nuclear power plant. On March 29, a forum was held in Plymouth to discuss a non-binding ballot question for the town election in May. The question is whether or not to freeze the plant’s relicensing process until all the Fukushima fixes are completed.

The political setting

The town of Plymouth has a Nuclear Matters Committee (NMC), which keeps informed on plant issues and advises the town’s Selectboard. In New England, towns are governed by the town meeting, where all voters who wish can convene to become the town legislature. The executive is a group chosen by the voters, now called the Selectboard. Many towns now also have a town manager reporting to the Selectboard.

Massachusetts is known as a very liberal state, and proud of this tradition. In the 1988 election, a referendum required shutting down both nuclear power plants in the state—Pilgrim and the Yankee Rowe nuclear power station. This referendum was defeated, thanks to 2 to 1 and 3 to 1 voting margins in the towns along Massachusetts’ high tech beltway I-495 (how this was done is a story for another time).

There is a virulent anti-nuclear movement in the Plymouth area, spearheaded by an individual from the nearby town of Duxbury. This person is able to be an intervener, and has filed numerous motions in Pilgrim’s relicensing. She is expected to continue to file motions in hopes of delaying relicensing (the plant’s 40-year license expires in June). The law for all federal regulatory agencies, however, provides for continued operation of the plant if an agency has not completed action on an application for extension/renewal filed more than five years beforehand.

Arranging the forum

The Plymouth NMC arranged a forum to discuss the ballot question. It wanted to have both the “Vote Yes” and “Vote No” positions represented. The obvious underlying issues were nuclear power itself, and the Fukushima–Daiichi accident’s effect on the Pilgrim boiling water reactor with Mark I containment. To speak in favor of “Yes,” the committee obtained Arnie Gundersen, of Fairewinds Associates, Burlington, Vt. To speak in favor of “No” it first contacted Professor Gil Brown of the University of Massachusetts, Lowell. Gil is a long-time American Nuclear Society and ANS Northeastern Section member. However, he is on sabbatical and working at the State Department, and could not make their date. Gil called me and put me in touch with the panel organizer. When Arnie found out that I was to be on the panel, he said that he would withdraw! But eventually he changed his mind (this made an interesting lead-up story in the local paper).

Then the chair of the NMC took over organizing and moderating the forum. Entergy, the plant’s owner, and the Nuclear Regulatory Commission, whose Region I staff were in the same room up to a half hour before the forum for their annual plant review meeting, could not participate (this article covers both events).

Before the forum we had a briefing with Jack Alexander, who does the Pilgrim public outreach; Paul Smith, retired Pilgrim staff and now consulting; and Chuck Adey, now retired and living in Plymouth, who has worked at the plant, done public outreach, and is an ANS Northeastern Section member.

 

The forum

The forum was held in the Selectboard meeting room in the town hall. This was formerly the high school, so the meeting room was originally a large classroom or small assembly hall. The NRC’s public meeting to report to the public on the plant’s prior year performance was held in half the room. Its meeting was informal and reception style, with no formal presentation. There were tables with displays, and Region I staff circulating to talk with attendees.

After the NRC meeting, the accordion wall dividing the room was folded, and chairs set up. The Selectboard members table was at one end of the room, on the floor with the audience, with microphones. The room had built-in TV cameras. The local public access station (PAC-TV) recorded for rebroadcast and on-demand viewing. A local radio station broadcast the program live, which necessitated one commercial break. A local newspaper had on-line coverage with a twitter stream, including many comments from Japan. Documentarian Robbie Leppzer had his camera set up in front of the first row of chairs, which unfortunately blocked my view of some of the audience. Meredith Angwin provided next day coverage at Yes Vermont Yankee.

There was standing room only. The members of the NMC were in the first row. The first several rows were filled with plant opponents. The moderator announced the program, and we began by introducing ourselves for 45 seconds, followed by our 20-minute presentations (see my presentation and the ANS report on Fukushima). Questions and answers followed for the balance of the two hours. The moderator, Jeff Berger, maintained strict control, including telling a person who raised a sign saying, “No Dose is Safe” that it was not permitted. The NMC members, now with a majority of technically oriented citizens, including Paul Smith who was on the plant staff and is still consulting, were given preference in asking questions. (The committee had recommended that the Selectboard not put the question on the ballot.) Then citizens of Plymouth were called, and when there seemed to be no more questions from them, people from other towns were called.

The content

The two-hour recording of the forum from PAC-TV Plymouth can be seen on demand.

My presentation and answers put the question of nuclear power in the context of a national policy to replace coal and its adverse health effects. I discussed the Fukushima-Daiichi accident and history of the Mark I containment as part of the development and learning process common to all technologies.

For his part, Arnie Gundersen continued his relentless attack on the Mark I Containment, saying it is too small, can’t contain, and must be vented. He dragged out references to Stephen Hanauer’s 1972 memo and other staff statements referring to Mark I as having serious problems. Additional claims by Gundersen:

  • A reactor produces 5-percent decay heat, which doesn’t stop.
  • NRC commissioners are vetted by the Nuclear Energy Institute. The NRC is cozy with the industry.
  • NRC Chairman Jaczko has said that people will have to be restricted from evacuation zones forever.
  • Fukushima will result in a million cases of cancer over 30 years.
  • Service water systems are vulnerable to sabotage, so reactors could lose all cooling. Gundersen referred to an incident in the recent past where a foreign sailboat got inside the buoy line around the plant’s intake.
  • The Chernobyl accident resulted in the demise of the Soviet Union, per Mr. Gorbechev.
  • Moving as much used fuel as possible to dry casks is important for safety.
  • The NRC is now concerned with drone attacks on a plant.

Most questions from the audience were also along the lines of these statements.

Members of the NMC and a few others did raise cogent points and dispute some of the statements made by Gundersen and others.

Aftermath

The local newspapers reported the forum, but the Boston newspapers and TV did not. Jack Alexander took this as a good sign, observing that these media specialize in only negative stories about the plant.

Supporters were satisfied that their position had been defended.

_____________________

Shaffer

Howard Shaffer has been an ANS member for 35 years. He has contributed to ASME and ANS Standards committees, ANS committees, national meeting staffs, and his local section, and was the 2001 ANS Congressional Fellow. He is a current member of the ANS Public Information Committee and consults in nuclear public outreach. 

He is coordinator for the Vermont Pilot Project.  Shaffer holds a BSEE from Duke University and an MSNE from MIT. He is a regular contributor to the ANS Nuclear Cafe.

Space nuclear propulsion: Humanity’s route to the solar system

Part II: Electric propulsion and fission power generation in space

(Part I, “Space nuclear reactor safety,” is here)

By Wesley Deason

Ever since man set foot on Earth’s moon, explorers have envisioned traveling out of Earth’s orbit and into space beyond. To do so, however, will require a propulsion device capable of traveling farther than any used before. These devices will be powered by nuclear energy. In this post, I will discuss nuclear electric propulsion, one of the two primary nuclear propulsion concepts considered by engineers for near-term space travel. Nuclear thermal propulsion, the other primary concept, will be explored in a later post.

Electric propulsion, also commonly referred to as “ion thrust propulsion,” uses electrical power to accelerate ions to very high speeds to provide thrust for a spacecraft. Nuclear electric propulsion is electric propulsion whose power source is fission reactor based, or radioisotope decay based. Electric propulsion is not a new technology, and is well understood. Currently, solar powered electric propulsion devices are used at a small scale to keep satellites in their correct orbit. For operation at a larger scale, however, where much higher thrust values will be needed, or operation at a distance from the sun where solar power is incapable of providing the necessary energy intensity, nuclear electric propulsion will be required.

Aside from the ion thruster used to provide thrust for a nuclear electric propelled spacecraft, its other defining characteristic is the type of nuclear electric generator needed to provide power. Nuclear electric generators used for power production in space can come in many shapes and sizes, depending on the power requirements and spacecraft dimensions. For small power production needs in missions requiring a low thrust, radioisotope power systems can be used. In these systems, the radioactive decay heat from a radioisotope is converted to electricity through the use of a heat-to-work conversion device, or a heat engine. The most common of these are Radioisotope Thermoelectric Generators (RTGs) and Advanced Stirling Radioisotope Generators (ASRGs). You can find out more about these systems by reading my previous post on plutonium-based radioisotope power systems.

SNAP 10-A, fission-based space power system launched in 1965

For larger thrust requirements, however, fission-based power systems become a necessity. Missions requiring such high thrust will be manned and/or carry a large onboard capacity for conducting science. These mission requirements are also often outside the capability of chemical (or even nuclear thermal) propulsion. Individually, the previously stated requirements are not difficult to meet. For example, earth-based power reactors generate enough power to light a large city, but the thought of launching them into space to produce power is absurd. Alternatively, fission power systems have been proposed that are about the size of a small car, which is a relatively small payload to put into low earth orbit. Unfortunately, these systems can produce only a fraction of the electric power that could be produced by that same small car. The ideal space nuclear electric generator would meet both requirements of size and power. To evaluate competitive designs for nuclear electric propulsion systems, engineers seek the smallest system mass possible for a given power production level.

SNAP 10-A

To meet these system requirements, engineers must consider different technologies from those used in earth-based nuclear reactors. For example, the first and only fission-based space power system to be flown by the United States, the SNAP-10A spacecraft, used thermoelectrics, which is the same power conversion technology used by RTGs to produce electricity. Thermoelectrics, however, while dependable, are very inefficient, and excess heat produced by the reactor must be rejected away from the spacecraft. In space, this heat rejection can only be in the form of radiative energy. For those unfamiliar with methods of heat transfer, radiative heat transfer is how heat lamps heat food at a local fast food restaurant, how heat is lost from a vacuum sealed Thermos, and even how the earth is heated by the sun. This may seem unintuitive at first but if you think about it, there are no lakes or rivers of water in space to sweep away excess heat like earth-based power systems. In space nuclear power systems, large panels are heated to high temperatures in order to reject this excess heat. Thus the size, and accordingly the temperature, of these radiator panels drive the power system to be as efficient and high temperature as possible.

Many technologies have been discussed as being capable of achieving such power production goals, with some being invented primarily for this purpose. One of the simpler systems may use a combination of helium and xenon gas as coolant, which can spin a turbine to produce electricity. This was the system designed and proposed for use in the Jupiter Icy Moons Orbiter (JIMO), a space exploration program under serious consideration only a few years ago. More complicated systems propose boiling potassium to spin a turbine, although the zero gravity environment of space makes the task more difficult to accomplish. Lastly, some propose suspending the fuel in a gaseous form, allowing it to flow through a magnetohydrodynamic generator (MHD), which uses the ionized fuel particles to produce electricity. The best way to explain an MHD generator is to think of it as a reverse ion thruster, where charged particles induce a current to produce electricity.

Prometheus nuclear electric Deep Space Vehicle, incorporating JIMO Mission Module

Nuclear electric propulsion has great potential. Its ability to provide propulsion to anywhere in the solar system makes it a viable competitor when the human race decides to explore beyond the gravity well of earth. Like most nuclear technologies, research will continue and technological advancements will continue to be made in the meantime.

_________________________

Deason

Wes Deason is a graduate student in nuclear engineering at Oregon State University working on the safety analysis of vented fuel systems for gas-cooled fast breeder reactors. He is a former summer fellow for the Center for Space Nuclear Research and the current student liaison for the Aerospace Nuclear Science and Technology Division of the American Nuclear Society.

 

Nuclear Matinee: Sustainable energy choices for the 21st century

This video take the stance that climate change and sustainability of the global human enterprise are two of the most critical issues of the 21st century. If we are to tackle these problems effectively, we need to make prudent, evidence-based choices about energy. This is the story told in this short animated video—the first to be featured in the ANS Nuclear Cafe “Friday Matinee” series.

For more information and to continue the discussion, visit BraveNewClimate.

Celebrating at Vermont Yankee: A successful rally on St Patrick’s Day

By Meredith Angwin

The Vermont Yankee nuclear power plant’s original Nuclear Regulatory Commission license expired on March 21, 2012 . The NRC, however, has renewed the license for another 20 years, and a recent court ruling will almost certainly allow the plant to operate for many more years. The American Nuclear Society’s Vermont Pilot Project (headed by Howard Shaffer) and the Energy Education Project of the Ethan Allen Institute (headed by me) thought it was time to celebrate! So, we held a rally on St. Patrick’s Day, Saturday, March 17, to celebrate the court ruling and 20 more years of Green Power.

Howard organized the rally to take place outside the plant gates at shift change. More than 80 people attended, including people of all ages and from all over the state. It was our largest rally so far! Howard bought some St. Patrick’s Day hats, and he encouraged people to make their own signs for the rally. Some examples:  “Only 7300 more days” and “Green and Clean.” Two local papers covered the rally, a major TV station put it on the evening news, and two radio shows interviewed me and ran announcements. Rally attendees and plant staff were all very happy with the results. Look at the faces in the pictures (at bottom). We were getting “thank you” emails from people for days! You can see more pictures and a short video on my blog post at Yes Vermont Yankee. We are grateful that Entergy, Vermont Yankee’s operator, allowed us to assemble on plant property just outside the main gates, and also for providing refreshments.

Carla Heath, Vermont Yankee employee

Opponent rallies

Nuclear opponents considered March 21 to be a very significant day, and planned all sorts of activities around it. They held out hope that the state’s Public Service Board would come up with some reason to shut the plant down. Instead, another federal court injunction intervened.

One of the first of these events was the arrival on March 21 of a group of Buddhist monks at the power plant in Vernon. These monks started their anti-nuclear walk at Oyster Creek, and ended it at Vermont Yankee. (If you look at their itinerary, you can see that they did not actually walk the whole way.)

O'Donnell, Merkle, and monk from Grafton Peace Pagoda, NY

As the monks walked past Vernon, two plant supporters arranged to have their picture taken with one of the monks and a pro-Vermont Yankee sign. (Yes, the monk does look a little puzzled. Or perhaps he’s meditating.) The two women in the picture are Patty O’Donnell, former state representative from the town of Vernon and current Selectboard chair, and Ellen Merkle, married to a Vermont Yankee employee.

The big opponent rally

That picture set the stage for the next day. Plant supporters were not confrontational, but they were not hiding in the closet, either.

On March 22, 1300 people came to Brattleboro to protest the plant. They wore different hats indicating their “affinity groups,” and stilt-walkers and persons with megaphones accompanied them. Some demonstrators had taken the kind of training they needed in order to be arrested. (The protest organizers had said that only people who had taken non-violence training could volunteer to be arrested.) Over 100  protestors were arrested. Though the protest was peaceful, the town of Brattleboro was mostly shut down for several hours. This was much to the annoyance of many people who live and work in the town.

Once again, however, supporters were not intimidated by the numbers of opponents. Gwen Shaculmis, a lawyer, sat on the lawn of her building, surrounded by VY4VT signs, while the protestors began their rally across the street. She was interviewed several times in the local papers and on TV. As Alan Panebaker of Vermont Digger wrote:

While the protesters made noise and created a spectacle, subtle signs lined many lawns in Brattleboro supporting the plant, which provides 650 jobs directly and around 1,000 including contractors.

And a few groups held signs saying “VY 4 VT” as the parade marched by.

Gwen Shaclumis, an attorney from Brattleboro, stood across the street from
the common while the protest ramped up.

Shaclumis said opponents of the plant neglect the fact that it is a crucial part of the regional economy.

You can see a video of the protestors and Ms. Shaclumis here.

The meaning of it all

What did we hope to accomplish? What did they hope to accomplish?

We hoped to do two things in our rally. First, we wanted to give plant personnel a chance to celebrate and be glad about the court ruling, and to know they have supporters.

Second, we wanted to encourage other supporters, just by being there, by being on TV, by having press releases about the rally in local papers. The message here:  If we can speak up in favor of nuclear energy, so can other supporters. Howard and I do not take credit for the actions of other supporters. EVERYONE’s actions were part of a tapestry of pro-nuclear people who decided to be visible.

Did our rally achieve these two goals? Yes.

Did the opponent rally work? It undoubtedly encouraged the people at the rally. But I personally think that the whole stilt-walker, masks, funny hats business doesn’t convince anyone who is not convinced already. I don’t think that undecided people, watching on TV, would want to join the opponents’ rally. Street Theater is a tired old concept.  It’s so…so… ’60s, perhaps?

In my opinion, the last few days in Brattleboro were a major step away from the customary silence of pro-nuclear people. Many pro-nuclear people were there; many people chose to be visible. We all encouraged each other to make a difference.

Fran Gerard, local Vermont Yankee supporter

 

 

 

 

 

 

Thanks to Cam Twarog for wide-angle picture

 

 

 

 

 

Larry Cummings, VY engineer, Howard Shaffer, Kenyon Webber, VY engineer

 

 

 

 

 

 

 

 

____________________

Angwin

Meredith Angwin is the founder of Carnot Communications, which helps firms to communicate technical matters. She specialized in mineral chemistry as a graduate student at the University of Chicago. Later, she became a project manager in the geothermal group at the Electric Power Research Institute (EPRI). Then she moved to nuclear energy, becoming a project manager in the EPRI nuclear division. She is an inventor on several patents.

Angwin serves as a commissioner in the Hartford Energy Commission, Hartford, Vt.  Angwin is a long-time member of the American Nuclear Society and coordinator of the Energy Education Project. She is a frequent contributor to the ANS Nuclear Cafe.

 

Good and bad news stories for nuclear 2011/2012

By Jim Hopf

After giving a brief update on recent Fukushima-related events in the United States, I’d like to talk about some good (but relatively unpublicized) things that have happened during what has otherwise been a very challenging year for the nuclear industry. Then I’ll discuss what, to me, was the most disconcerting story in the past year.

NRC response to Fukushima

The Nuclear Regulatory Commission published a series of new requirements for U.S. nuclear plants, as a result of its evaluation of the Fukushima event. Requirements include seismic evaluations and upgrades (if necessary), the addition of portable pumps and generators (sited at multiple, protected locations), and enhanced monitoring capability for spent fuel pools. For many older boiling water reactors, hardened vents may be required (if not already in place). Another requirement being discussed is the ability to maintain operations (and cooling) without off-site power indefinitely (as opposed to the current requirement of 4–8 hours).

During Senate testimony, NRC Chairman Jaczko and other commissioners appeared to disagree over the amount of time that will be required for plants to make the proposed changes. Jaczko stated that some of the changes are likely to take until 2017–2019 (something that he said he was “concerned” about), whereas other commissioners thought that the changes will be in place by 2016.

Good news in 2011/2012

We’re all aware of the fact that the final NRC licenses were finally granted for construction of the new Vogtle reactors. It is also true that the project is within budget and schedule so far. Some lesser-known bits of good news are discussed below.

NRC Accident Consequence Statement

This is one potentially very positive thing that happened for the industry recently, without much publicity or fanfare. In part as a result of its evaluation of Fukushima, the NRC released a position statement concerning the potential consequences of (even worst case) nuclear plant accidents. The NRC (finally) acknowledged what many of us have known for a long time. It stated that the risk to public health, even from a severe accident, is “very small”. It also stated that the risk of short-term fatalities from acute exposure was “essentially zero,” and that the scenario of a large amount of radiation being released very quickly
(thus requiring a rapid evacuation) was unrealistic.

This is probably as close as we’re going to get to a formal retraction of the earlier analyses/assumptions that formed the basis of emergency response planning over previous decades. These grossly unrealistic analyses predicted thousands of immediate deaths from acute exposure, followed by tens of thousands of long-term cancers. Chernobyl had already shown those analyses to be completely unrealistic, and (I suppose) Fukushima, with its complete lack of health impacts, was the final nail in the coffin.

But, alas, I suppose I’m being unrealistic in hoping that this could lead to some relief with respect to emergency planning requirements. Indeed, many seem to be drawing precisely the reverse conclusion, asking whether evacuation zones should be increased (never mind that many other facilities that are actually more dangerous, such as chemical plants, oil refineries, etc., do not have similar evacuation zones).

This is a shame, given that these evacuation zones/plans have always been an albatross around the industry’s neck that has been used relentlessly by nuclear opponents (e.g., the Shoreham plant). They always argue about how rapid evacuation may not be practical. Well, we’ve just (finally) realized that it’s not necessary!

Fukushima also showed that, even with respect to longer-term impacts, significant effects of even a worst-case meltdown do not extend beyond ~20–25 miles of the plant (in any direction). And yet we still hear people talking about populations as far as 50 miles from plants (e.g., New York City from the Indian Point plant).

Clean Energy Standard Legislation

The Senate Energy Committee finally released a detailed legislative proposal for a Clean Energy Standard. The final proposal is the result of many years of analysis and negotiation. While it is unlikely to pass (or be considered) this year, it is considered more likely to pass than other options such as comprehensive global warming legislation. It has the potential support of several moderate Republicans.

The good news is that the final details of the legislation appear to be rational and even-handed, and fairly good for the nuclear industry. The Standard requires that 85 percent of U.S. electricity generation be from “clean” sources by 2035. While the final version does allow partial credit for fossil sources like gas, the amount of partial credit scales (inversely) with the level of CO2 emissions (relative to a coal plant). Thus, non-emitting sources like nuclear would retain a significant advantage over gas, particularly in the later phases of the program (when an all-gas generation profile would no longer be able to meet the requirements).

SMRs Move Forward

The U.S. Department of Energy recently decided to provide $452 million in funding for licensing of small modular reactors (SMRs), over the next five years. The DOE is also making plans to host three SMR demonstration projects on the Savannah River Site. The three selected reactors are the 45-megawatt (MW) NuScale Pressurized Water Reactor (PWR), the 25-MW Gen4 Energy fast reactor, and a 140-MW PWR reactor from Holtec.

Hopefully, construction of the prototypes will speed the technological development of these reactors, although NRC licensing should occur in parallel. Use of the Savannah River complex may make siting these prototype reactors easier, which could speed licensing and deployment.

A New Low Level Waste Site (at last)

The Waste Control Specialists’ low level waste (LLW) site in Texas (near the New Mexico border) will soon begin operation. The site will take waste from 38 states. It will handle all types of LLW, including Class A, B, and C. Given the closure of the Barnwell site to out-of-compact waste, the Texas site is now the only site that accepts all classes of LLW from most states.

This represents a significant victory, given the level of difficulty the nation has had in siting new LLW disposal facilities, anywhere, for many decades. This is the first site to open in 30 years. For some time, the political task of opening new LLW sites was thought to be intractable.

It should also be noted that within the same general area (in southeast New Mexico), the local communities around the DOE’s WIPP repository are actively seeking to host the nation’s spent fuel and high-level waste as well. There is some indication that the state government is willing to consider the option.

Sanity Prevails in France

The French government recently released a new long-term energy options evaluation that concludes that the most economical and practical option is to extend the operating life of its existing reactor fleet from 40 years to 60 years.

In the past, French policy had always appeared to be to replace its reactors with new ones after ~40 years of life.  Given the long-standing position in the United States that light water reactors (LWRs) could be run safely for 60 or more years, I’ve always found the (old) French position to be puzzling. I wondered if it was, in part, just a means of creating extra work to keep its domestic industry employed and on top of its game, similar to U.S. Depression-era make-work programs.

In any event, it seems like they’ve finally come to their senses. Any new nukes should be used to increase, not maintain, capacity (i.e., be used to replace fossil fuels). The cost savings will be enormous. Perhaps this new position is partly a result of Fukushima. With political support for new reactor construction much lower, perhaps the French government concluded that the only way their nuclear capacity would be maintained would be through extended operation.

The biggest bad news story of 2011/2012

Despite the positive news stories discussed above, my level of optimism for nuclear’s future was deeply shaken last year, not by the Fukushima event itself, but by the public/media/political reaction to it, particularly in Japan.

Here in the United States, Fukushima is somewhat less significant. Polls show only small reductions in public support. New nukes remain highly popular in most regions/locations where new reactors are being considered. Also, in the United States, several other factors, including the lack of any global warming policies on the horizon, the fact that the economic downturn suppressed future power demand growth, and low natural gas costs due to the shale gas “miracle,” loom larger over nuclear’s future.

In the rest of the world, however, Fukushima has had a surprisingly large impact on public opinion in many, if not most nations. In addition to Japan and Germany, anti-nuclear opinion has surged in other nations with strong nuclear programs, such as France and South Korea. The reaction in Germany does not surprise or upset me much. They are merely returning to their usual long-standing anti-nuclear position (with the 2022 nuclear phase-out date actually being two years later than a long-standing 2020 phase-out date). I was (and am) utterly dismayed, however, by the public/political reaction in Japan.

Japanese Reaction

If one asks the question of how big a natural disaster (e.g., earthquake) a nuclear plant should be able to take, the rational answer is clearly not “infinite.” One quite reasonable answer given by many people is that the disaster should be sufficiently large that if it did occur, a meltdown would be the least of their problems. One would think that Fukushima would be a textbook case of this, with ~20,000 deaths from the earthquake and tsunami, no immediate deaths from the meltdown, and few if any projected future deaths. It is also true that the number of evacuees and lost homes due to the earthquake and tsunami is larger than that from the radiation release.

But then, we watched in horror as the world’s attention (media, etc.) focused mostly on the plant meltdown, as opposed to the earthquake and tsunami. Not only were the enormous impacts of the earthquake and tsunami (deaths, etc.) deemed less newsworthy than the plant meltdowns, but so were the vastly larger ongoing health and environmental impacts of fossil fuel generation. Apparently, such logical thinking on our part does not adequately consider various psychological and political factors.

According to the World Health Organization, fossil-fueled power generation causes hundreds of thousands of deaths, worldwide, every single year (i.e., on the order of 1000 deaths every single day). Even conservative estimates, based on the pessimistic linear-no-threshold assumption, predict less than ~1000 eventual deaths from Fukushima. Thus, in terms of health impacts, worldwide fossil fuel power generation is having an impact equal to (or worse than) having a Fukushima event occur every single day. And that’s before considering global warming.

Despite these facts, the people of Japan, and their political leaders, are apparently ready to shut down their nuclear plants and replace them with vastly more dangerous and harmful fossil fuel generation. They are willing to do this even through it will mean greatly increased air pollution and CO2 emissions, and will have a devastating effect on their economy. Japan has always had an export-driven industrial economy with large trade surpluses. For the first time in memory, however, Japan will be running a trade deficit, primarily due to the increased fossil fuel imports that are necessary to replace their nuclear generation. In addition to horrendous health and environmental impacts, the fossil generation will result in markedly higher power costs. Many of Japan’s heavy industries have threatened to move off-shore.

Double standard forever?

These reactions, in Japan and elsewhere, are leading me to believe that there is a deeply-ingrained prejudice against nuclear power as a means of power production; one that may never disappear. Whether it is the legacy of the bomb, or is due to enormous media/political influence of the world fossil fuel industry (who knows?), the fact is that minor impacts from nuclear are given far more attention, and are far less tolerated, than far larger impacts from fossil fuels and other technologies.

The double standard is also alive and well in the United States. Not only has the U.S. nuclear industry accepted the NRC’s new requirements without significant resistance, but they’ve even proactively pursued improvements on their own, without being legally required to do so. And yet, in congressional hearings
and elsewhere, many are not satisfied with the rate or amount of improvement,
saying that having to wait over five years is an unacceptable risk. Meanwhile, old “grandfathered” coal plants in the United States are still not meeting the requirements of the 1970 Clean Air Act, the result being tens of thousands of annual deaths. Despite the fact that the public health risks in question are orders of magnitude larger in the coal plants’ case, apparently taking over 40 years is okay for them, whereas five years is too long for nuclear’s Fukushima upgrades.

Nuclear has always been held to standards thousands of times as strict (in terms of dollars spent per life saved, etc.) than fossil fuels. Before Fuksushima, with all the attention being paid to global warming, I had thought that the playing field might start to become somewhat more balanced. Now, after Fukushima, nuclear requirements are becoming even more strict (with any notions of regulatory relief being put to bed), whereas attempts are now being made (in the United States, anyway) to reduce regulations/requirements on fossil fuels even further. Humble requests to reduce air pollution and/or CO2 emissions are met with calls to eliminate the Environmental Protection Agency.

Thus, the spectacularly unlevel playing field will likely get even more unlevel. The Clean Energy Standard is the only hope left out there.

Our industry seems all too eager to accept unprecedentedly stringent requirements, for love of the engineering challenge, apparently. The most pertinent example is the acceptance of radiation dose rate limits (e.g., 100 mrem/yr) that are orders of magnitude lower than the levels for which any significant health impacts are seen. The fact is, in my view, that NO technology can survive (over the long term) while being on the receiving end of an enormous double standard (i.e., under a tremendously non-level playing field). Better technology (e.g., SMRs, etc.) is not the answer. We must ask ourselves what we can do to get policies enacted that will level the regulatory playing field, and how we can reduce the tremendous prejudice that society has against our technology. I have several thoughts on those issues, but I’ve run out of space for this column…

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Hopf

Jim Hopf is a senior nuclear engineer with more than 20 years of experience in shielding and criticality analysis and design for spent fuel dry storage and transportation systems. He has been involved in nuclear advocacy for 10+ years, and is a member of the ANS Public Information Committee. He is a regular contributor to the ANS Nuclear Cafe.

The ANS 2012 Thermal Hydraulics Young Professional Research Competition

By Elia Merzari

One of the missions of the American Nuclear Society’s Young Members Group is to promote participation of young members in the activities of the society. Boosting the involvement of young members in the technical programs of the society’s professional divisions is an important goal in this effort.

Every year since 2006, the Thermal Hydraulics Division (THD) and the Young Members Group (YMG) have organized the Thermal Hydraulics Young Professional Research Competition for ANS members with less than 5 years of professional experience after graduation or younger than 35 years old. The competition is also open to graduate students, but the first author of the summary is expected to present the work and be largely responsible for the research conducted.

Participants submit a summary to the ANS Winter Meeting, which undergoes the usual peer-review process. The accepted summaries and the corresponding presentations are then critiqued by a panel of judges organized by the THD at the winter meeting. The winner receives a plaque furnished by the THD.

The competition has enjoyed a growing success, in each of the last two years receiving 14 submissions or more. The majority of these summaries are from graduate students, but a growing number of papers comes from professionals working in national laboratories, research centers, and industry. The competition has proven to be an effective means for YMG members to become involved in THD activities—and vice versa. For example, I began my involvement in the YMG because of the competition, while, in turn, the THD also benefitted from the competition, with a significant increase in summary submissions observed in recent meetings, most of which are from young members.

Nathaniel Salpeter, the 2011 Winner, had this to say about the competition: “The Young Professional Thermal Hydraulics Competition was a constructive experience that provided a great platform not just for presenting my own research, but also for engaging with many extremely talented peers in a mutually beneficial setting where high quality research presentations, constructive peer review, and interaction with nuclear industry champions combine to form a model professional development competition.”

Overall, the Thermal Hydraulics Young Professional Research Competition is a remarkable success story of cooperation between the YMG and the technical divisions. Experience has shown that the dedication of some key people is essential. If you wish to volunteer to organize this competition or a similar one sponsored by a different division, please don’t hesitate to contact us. We are always looking to expand on this positive experience!

The next Thermal Hydraulics Young Professional Research Competition will be held in San Diego in conjunction with the ANS Winter Meeting in November. For more information, check the competition announcement or contact Wade Marcum. The submissions website for the ANS Winter Meeting opens on April 1.

____________________

Merzari

Elia Merzari is the current YMG secretary. He works as a nuclear engineer at Argonne National Laboratory, where his research interests include nuclear thermal-hydraulics, modeling and simulation of nuclear reactors, and accelerator driven systems.

Albert Einstein and the most elemental atomic theory

By Paul Bowersox

Albert Einstein’s birthdate was less than a week ago, on March 14,
in the year 1879.  Happy belated birthday, Albert!

Albert Einstein, age 4

As a slightly overdue commemoration of Albert Einstein’s 133nd birthday, I would like to make a quick note of his most “elemental” contribution to atomic theory—he was the first person to show a way to prove the existence of atoms—using an ordinary microscope!

Atomic theory

When you really get down to it, “atomic theory” begins with a claim that matter is made of atoms. This sounds obvious enough to us today, but not very long ago, relatively speaking, chemists and physicists were known to debate this idea fiercely. The idea of atoms as a shortcut for thinking about how matter worked seemed quite useful even more than a century ago—but then again, so did ideas like a stationary earth at the center of the universe. When Einstein was a young man, atoms had never been observed. Was the idea of atoms actually “real?” Or was something else, perhaps something unexpected, going on?

1905 was a good year

The year 1905 was a good year for 26-year-old Albert Einstein. While working at the patent office in Bern, Switzerland, he completed his PhD dissertation. He published his Special Theory of Relativity, which later led to the General Theory of Relativity, which led to his designation as “the father of modern physics.” Einstein also in 1905 proposed that light energy can be absorbed or emitted only in discrete packets called quanta, a provocative contradiction of the then-prevalent wave theory of light—and this led to Einstein’s winning of the Nobel Prize. Einstein in 1905 also explained the equivalency of mass and energy, expressed by the famous equation e=mc2.

Yet these were not sufficient world-changing, revolutionary advances in physics for a single year. Einstein also in 1905 mathematically proved the existence of atoms, and thus helped revolutionize all the sciences through the use of statistics and probability.

Albert Einstein, age 25

An atomic view of a liquid

Atomic theory says that any liquid is made up of molecules (invisible in 1905). Furthermore, these molecules are always in random, ceaseless motion. The average behavior of these molecules produces the overall properties of any liquid that we observe. But Einstein realized that this random chaos of jostling, invisible molecules would produce statistical fluctuations—for example, once in a while a small group of invisible molecules could, just for a moment, move in mostly the same direction. Then, another nearby group of molecules could for a moment move mostly in a different direction. A visible object, immersed among these invisible, randomly jostling molecules, wouldn’t move much most of the time, since it would normally be buffeted from all sides evenly—but then occasionally it could be “pushed” in one direction and then moments later pushed in a different direction, showing a “zigzag” motion.

Brownian motion

The jittery motion of tiny observable particles had been described by botanist Robert Brown as early as 1827, and was not surprisingly known as Brownian motion. Measuring this motion, however, and explaining it mathematically had proven extremely difficult. What was required, in short, was Einstein’s
realization that even though observable particles are much larger, they still
generate pressure the same way as the invisible molecules in which they are
immersed. So, if the concentration of large particles varies, they too flow to even out their concentration just like the atoms and molecules in which they are immersed.

Brownian motion demonstration

Using this insight, and some associated mathematics, Einstein was able to accurately calculate the average distance an immersed visible particle would travel in a given time. His mathematical laws governing the movements of invisible particles could be tested and measured by observing the motion of the visible— simply using a microscope and a stopwatch, and a fluid containing many uniformly sized tiny, yet visible, particles. Although this was quite tricky to test a hundred years ago, eventually Einstein’s calculations were fully confirmed by Jean Perrin in 1909, winning Perrin the Nobel Prize.

Some implications

The existence of atoms and molecules was confirmed. With Einstein’s calculations, one could determine the size of these invisible atoms and
molecules. Also, the idea that heat is the result of the motion of atoms and molecules was confirmed. And finally, the vital importance of statistics and probability in physics had been established. This was a pivotal achievement, considering the truly revolutionary discoveries in quantum mechanics that were about to ensue. More broadly, Einstein’s use of statistical fluctuations, and probability theory, eventually revolutionized the study of all complex systems—weather, climate, stock markets, and evolution, to name a few—and forever improved our understanding of how the world works.

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Paul Bowersox is a regular contributor to the ANS Nuclear Cafe and admirer of the achievements of the nuclear pioneers.

Call to action: Educate and encourage students about nuclear science

 By Bethany Cargle

“Do power plants really use mouse traps and ping-pong balls to create energy?” asked a fifth grade boy at Steele Creek Elementary School. Why would he ask this question? The question was a legitimate one for students attending the RCS Nuclear–sponsored reading of the children’s picture book Nuclear Power: How a Nuclear Plant Really Works! at Steele Creek Elementary in Charlotte, N.C., during National Engineers Week.

Amelia Frahm, author of the book, read the book to the school children and described a fission chain reaction using a metaphor of ping-pong balls and mouse traps to help children understand how energy is produced in a nuclear power plant. This is why RCS Nuclear chose to donate Frahm’s book to Charlotte area elementary schools and sponsor the author reading.

As a supplier of nuclear and related engineering personnel, RCS Nuclear believes it has a responsibility to encourage young students to become engineers, especially because of the lack of interest sometimes found in students today. “These students are the future for the industries we supply engineers to, and it is the company’s responsibility to prepare them now,” said Carlos Garcia, ANS member and founder of RCS Nuclear.

In attendance at Frahm’s book reading were five sessions of 50 students; in total, approximately 250 fourth and fifth graders were there. Prior to the reading, the students were asked if they knew what nuclear engineers did or how nuclear energy was created. No student could give an answer, but they listened carefully as they learned how a nuclear plant works from the point of view of a lab rat, a blue bird, and a fat cat, who are characters in the book. Then, they laughed and enjoyed a video created by the author, which demonstrated the mouse trap and ping-pong ball fission chain reaction. These reactions prove that educating young students about nuclear energy and encouraging them to pursue a higher education and career in the nuclear industry is necessary and effective. When approached with information about nuclear science in a way that is enjoyable to them, it can spark a new interest in students and influence their future educational goals.

“What makes a Nuclear Plant Nu-cle-ar?” – a report by Birderson Cooper Produced by Tabitha Frahm and Amelia Frahm

It is the responsibility of companies, organizations, and individuals involved in the nuclear industry to participate in K-12 outreach programs and events such as National Nuclear Science Week and National Engineers Week. Messages need to be entertaining and tailored to engage young people using concepts they understand. For example, during the author reading at Steele Creek Elementary School, Amelia Frahm tapped into the fourth and fifth grade psyche and, in addition to the ping-pong ball and mouse trap metaphor, explained fissioning by using a spitball fight, with teachers being the control rods who stop the fission chain reaction/spitball fight. The students instantly related to this and truly got a simplified understanding of a fission chain reaction.

There are many opportunities for the nuclear industry to get involved in securing its future. Research and use the many resources that are available to assist in your K-12 outreach. It is important to become active with schools and youth organizations, rather than remain passive and hope that students are getting encouragement solely from their teachers and administration. Pass along your passion for your profession and the nuclear industry to young people, and reach the ones who may never have considered a nuclear career if not for your support.

Suzy Hobbs Baker introduces Amelia Frahm and Nuclear Power: How a Nuclear Plant Really Works! at the ANS Nuclear Cafe.

Some resources from the American Nuclear Society:

See ANS Public Information for much more.

______________________

Cargle

Bethany Cargle is a recent graduate from the University of North Carolina- Charlotte with a B.A. in Communication Studies. She is the Marketing Specialist at RCS Nuclear (http://www.rcsnuclear.com/), a professional staffing service provider for the nuclear industry, and is a member of the Piedmont-Carolinas American Nuclear Society chapter.

NRC/Fukushima Hearing in US Senate Today 10AM ET

NRC Commissioners Magwood, Svinicki, Chairman Jaczko, Apostolakis, Ostendorff

A hearing titled “Lessons from Fukushima One Year Later: NRC’s Implementation of Recommendations for Enhancing Nuclear Reactor Safety in the 21st Century” will be held in the U.S. Senate this morning at 10:00 AM EDT.  Witnesses will include NRC chairman Gregory Jaczko and fellow NRC commissioners Kristine Svinicki, George Apostolakis, William Magwood, and William Ostendorff.

The hearing will be webcast live starting at 10:00 AM ET.  Watch hearing from beginning archived here.  The hearing will also be broadcast live on C SPAN cable television.  XM satellite radio subscribers can listen to the audio broadcast of the hearing on C-Span Radio on Channel 119. Please see this earlier Nuclear Cafe post for more details.

Kallie Metzger: Nuclear Inspiration

By Suzy Hobbs Baker

At a recent conference I had the pleasure of meeting Kallie Metzger, a young nuclear engineering Ph.D. candidate from the University of South Carolina. Kallie and I quickly discovered that we have a great deal in common, especially when it comes to our shared passion for art and science. Kallie was kind enough to share her undergraduate thesis with me, and I found it to be so unique and contemporary that I had to share it here. In her own words, here is the inspiration of a young physics student who chose to express her passion for science through art.

Kallie Metzger, Ph.D. candidate in nuclear engineering at the University of South Carolina

“Modern physics is a field that is as complex as it is beautiful. While taking a quantum mechanics class, I encountered a field of physics that was unlike anything I had comprehended in my studies up until that point. It was abstract and intriguing. The following summer I worked at a nuclear reactor in Mainz, Germany, and came to appreciate modern physics even more. From the brilliance of the blue Cherenkov radiation to the enormity and power of the particle colliders and accelerators at Darmstadt, I was completely in awe. Too often physics is dismissed as complex, intimidating, and even boring. The aim of my senior thesis was to dispel these misconceptions through art,” Metzger said.

Bubble Chamber I – oil on canvas

“An interdisciplinary art exhibition allows individuals from all walks of life to experience and learn about physics in a lecture-free format,” Metzger continued. ”At the thesis defense/art exhibition, brochures were available to clarify physics terminology and to enhance the viewer’s understanding of the relationship between physics and art. I have always enjoyed art, however my physics major rarely provided me the opportunity to take superfluous classes outside the physics curriculum. For my honors thesis I created a series of 13 paintings that pay homage to the elegance of modern physics.

Bubble Chamber IV - oil on canvas

“I believe that in order to create a work of art I have to feel inspired by my subject. I find such inspiration in particle and nuclear physics. Many paintings in the series have tranquil, serene blue colors. This is my tribute to the Cherenkov radiation I was able to observe while initiating a pulse at the reactor at the Institute for Thermal Chemistry in Mainz, Germany, last summer. I was enamored with the beauty of the pulse and knew I wanted to incorporate it in some way into my subject matter.”

Particle Spray - sculpting gel, acrylic, and gold leaf on canvas

“The body of work may seem to contain two separate subjects, however particle physics and galaxies have more in common than you may think,” she added. “I became interested in particle physics during an undergraduate research lab, where I recorded the counts of muons at different altitudes. I was shocked to learn that varieties of particles fall on the earth’s atmosphere and can pass through buildings and the human body in a given second. Research into the ‘cosmic background‘ led me to its origins: Our sun and the far reaches of the galaxy.”

Helix Nebula - oil on canvas

I recently spoke with Kallie about her experience of using art to express scientific concepts. She told me, “Art can be used as a tool for accommodating people. It’s much less intimidating to look at a piece of art than to read a technical summary.” And for those in scientific fields, Kallie discovered that art can help people from technical walks of life “view their field in a different light.”

Cat's Eye Nebula - oil on canvas

Beyond the art itself, there is a great deal of value in the relationships and community building that resulted from Kallie’s senior thesis. Kallie had never attempted oil painting before taking on this project, and sought the support of an advisor from the University of South Carolina art department to help her navigate the process. The result was an exhibit that drew viewers both from the art and science backgrounds. At the exhibit opening, Kallie described an exchange of ideas between the two groups: Science students describing particle physics to art students, and art students being inspired by new concepts.

Reaching a new audience in their language, on their turf is an outreach strategy that is as effective as it is innovative, and something we in the nuclear industry should continue to strive toward. Thank you, Kallie, for sharing your inspiring story!

_________________ 

Hobbs Baker

Suzy Hobbs Baker is the executive director of PopAtomic Studios, a non-profit organization dedicated to using the power of visual and liberal arts to enrich the discussion on nuclear energy. Hobbs Baker is an ANS member and a frequent contributor to ANS Nuclear Cafe