atw - International Journal for Nuclear Power | 04.2019
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<strong>atw</strong> Vol. 64 (2019) | Issue 4 ı April<br />
236<br />
NEWS<br />
* The Loviisa nuclear<br />
power plant consists<br />
of two pressurized<br />
water reactors with<br />
an installed net<br />
capacity of 507 megawatt<br />
each. It is situated<br />
on the south<br />
coast of Finland.<br />
Loviisa 1 started<br />
commercial operation<br />
in 1977, Loviisa 2<br />
followed in 1980.<br />
upgraded with the latest technology<br />
and monitored <strong>for</strong> optimal<br />
per<strong>for</strong>mance.<br />
By the time a facility seeks to<br />
extend its operating license with<br />
the NRC beyond 40 years –<br />
because of improvements to<br />
turbines, pumps, instrumentation<br />
and other components – the<br />
plants are extensively updated.<br />
Through equipment upgrades,<br />
many plants have been<br />
able to raise the amount of<br />
power they produce. These<br />
improvements, along with other efficiencies,<br />
have helped plants spend<br />
more time generating elec tricity. The<br />
average capacity factor <strong>for</strong> all nuclear<br />
plants in 2018 was 92.3 percent,<br />
which means that the plants were<br />
almost always up and making electricity.<br />
In contrast, in the 1970s,<br />
reactors on average operated less than<br />
60 percent of the hours in a year.<br />
The industry has not stopped<br />
improving either, as it continues to<br />
develop advanced technology like<br />
accident-tolerant fuels, which could<br />
further boost plant per<strong>for</strong>mance,<br />
increase safety and reduce costs.<br />
<strong>Nuclear</strong> plants are prepared <strong>for</strong><br />
the worst<br />
The operators at every nuclear plant<br />
prepare detailed plans with one goal<br />
in mind: to protect their communities<br />
and employees.<br />
These plans meet requirements<br />
set by the NRC and the Federal<br />
Emergency Management Agency. Plant<br />
workers conduct training and drills<br />
every month, and every two years they<br />
test their plans with state and local<br />
government agencies and the NRC.<br />
Emergency plans are also updated<br />
based on emerging issues. After the<br />
terrorist attacks of Sept. 11, the<br />
industry re-evaluated its plans to cover<br />
a broader array of un<strong>for</strong>eseen events.<br />
Additionally, after the Fukushima accident<br />
in 2011, the industry stationed<br />
more backup safety equipment at<br />
plants and regional depots. The FLEX<br />
strategy made about 1,500 pieces of<br />
additional equipment, from nozzles to<br />
generators, available to every nuclear<br />
plant in case of an emergency.<br />
<strong>Nuclear</strong> plants don’t just provide<br />
more than 55 percent of carbon-free<br />
electricity in the United States. They<br />
also are among the safest and most<br />
secure industrial facilities in the<br />
country. And 40 years after the<br />
accident at Three Mile Island, nuclear<br />
energy remains the safest and cleanest<br />
<strong>for</strong>m of baseload power generation.<br />
| | www.nei.org<br />
| | Framatome. Innovation: Robotics<br />
Company News<br />
Framatome.<br />
Innovation: Robotics<br />
(framatome) They go by names such as<br />
Charli, Eloise, Pelican or Forerunner<br />
and they’ve joined the ranks at<br />
Framatome to lend their iron hands to<br />
our teams and our customers’ teams.<br />
These robotic collaborators significantly<br />
improve safety in the field and<br />
enhance the per<strong>for</strong>mance of operations.<br />
They are the illustration of our<br />
innovation approach, aiming to offer<br />
safe and increasingly competitive<br />
nuclear energy.<br />
Driven by major technological<br />
advances, these robots represent years<br />
of productive, collective research and<br />
development. Experience some of this<br />
innovation in action: from the Saint-<br />
Marcel plant, where operators use robotic<br />
arms to facilitate strenuous work<br />
and reduce occupational risk, through<br />
to dismantling of the Superphénix reactor,<br />
where the laser robot Eloise has<br />
become quite simply… indispensable.<br />
Available in a variety of models,<br />
SUSI can examine most reactor coolant<br />
system components as well as reactor<br />
pressure vessel, reactor pressure vessel<br />
head, pumps, pressurizers and piping<br />
in nuclear power plants worldwide.<br />
SUSI also per<strong>for</strong>ms visual ultrasonic<br />
inspections of baffle bolts. Plus,<br />
it can serve as a gripping device to<br />
retrieve <strong>for</strong>eign objects. In addition,<br />
the robot can be calibrated under water<br />
at any time during the inspection.<br />
A separate satellite camera system<br />
can be deployed with SUSI or on its<br />
own to further enhance inspection<br />
results in hard-to-reach areas.<br />
| | www.framatome.com<br />
Finland: Framatome successfully<br />
completes modification<br />
of Loviisa nuclear power<br />
plant’s Control rod instrumentation<br />
& control system<br />
Framatome has successfully modified<br />
the Preventive Protection System (PPS)<br />
at the Loviisa* nuclear power plant,<br />
operated by the Finnish utility Fortum.<br />
The Preventive Protection System uses<br />
control rods to monitor the reactor<br />
power and contributes to the safe operation<br />
of the plant. Implemen tation of<br />
the PPS is part of the modernization of<br />
the plant’s I&C system.<br />
The project started in 2016 when<br />
Fortum awarded Framatome the<br />
contract <strong>for</strong> the PPS and included the<br />
modification of the TELEPERM XS<br />
technology, originally delivered by<br />
Framatome in 2008 (Unit 1) and 2009<br />
(Unit 2).<br />
Framatome’s I&C teams prepared<br />
the required documentation, designed<br />
and engineered the system modification<br />
and per<strong>for</strong>med the final testing,<br />
installation and commissioning on site<br />
during the 2018 outage. These tasks<br />
are essential <strong>for</strong> the functionality of<br />
the entire system and are also mandatory<br />
<strong>for</strong> obtaining the licensing by<br />
the Finnish safety authority STUK.<br />
A joint team approach and close<br />
cooperation between Framatome and<br />
Fortum at all stages of the project<br />
were key to ensuring successful completion<br />
on time and to budget.<br />
“This successful modification<br />
project proves Framatome’s ability to<br />
provide I&C upgrades to different<br />
reactor types worldwide. Our<br />
TELEPERM XS I&C system is well<br />
known to Finnish operators and the<br />
authority STUK which is a perfect<br />
basis <strong>for</strong> further projects”, said<br />
Frédéric Lelièvre, Senior Executive<br />
Vice President in charge of Sales,<br />
Regional Plat<strong>for</strong>ms and the Instrumentation<br />
and Control Business Unit<br />
at Framatome.<br />
| | www.framatome.com<br />
GNS: Package design approval<br />
<strong>for</strong> CASTOR® MTR3<br />
(gns) On 17 January 2019, the German<br />
Federal Office <strong>for</strong> the Safety of <strong>Nuclear</strong><br />
Waste Management (Bundesamt<br />
für kerntechnische Entsorgungssicherheit/BfE)<br />
issued the package design<br />
approval certificate <strong>for</strong> the transport<br />
and storage cask CASTOR® MTR3 as<br />
type B(U)F packaging. The cask was<br />
developed by GNS Gesellschaft für<br />
Nuklear-Service mbH especially <strong>for</strong><br />
spent fuel elements from research<br />
reactors. The approval complies with<br />
the internationally valid regulations<br />
of the <strong>International</strong> Atomic Energy<br />
Agency (IAEA) <strong>for</strong> the safe transport<br />
of radioactive materials.<br />
The CASTOR® MTR3 will initially<br />
be used <strong>for</strong> the transport and storage<br />
of spent fuel elements of the research<br />
reactor FRM II of the TU Munich. In<br />
addition, the cask will be able to<br />
News