Gorod-sputik

Page 1

Gorod Sputnik



-Who are you? -I am a city. -What is your name? -My name is Visaginas. -How old are you? - I am 42 years old. -How do you look like? -I look like a half of a butterfly -Why? -When the architects planned me, they thought I will be bigger and will look like a butterfly with 4 wings . But such a big city wasn’t needed and I have only 2 wings. - Where do you live? - In the north-east of Lithuania - Do you have neighbors? -Yes, I have. My neighbor is Ignalina Nuclear Power Plant, but it is decommissioned and soon I’ll be alone. - How do you feel? - I feel undesired, left behind, insecure, or discarded. -What do you think about your future? - I really don’t know what awaits me in the future. Let’s see…


1975

popolation

1977.01.05

Power Unit : Ignalina-1

Start construction

Reactor type

RBMK-1500

1978.01.01

Power Unit : Ignalina-2

Start construction

Reactor type

RBMK-1500

1979

population

1981

population

1983.12.31

Power Unit : Ignalina-1

Connection to the network

Reactor type

RBMK-1500

Commissioning

Reactor type

RBMK-1500

1984.01.05

Power Unit : Ignalina-1

0

6 212

9 800


Ignalina Nuclear Power Plant


22

1985

population

1987.06.01 1987.08.20

Ignalina-3

Start construction

Reactor type

RBMK-1500

Ignalina-1

Connection to the network

Reactor type

RBMK-1500

1987.08.20

1988.08.30

Commissioning

Ignalina-3

Start construction

RBMK-1500 235 Fuel U Neutron energy spectrum Thermal Primary control method Control rods Primary moderator Graphite Power (thermal) 4,800 MWth Power (electric) 1,500 MWE

Graphite Category Formula (repeating unit) Crystal system Crystal class

Native mineral C

Hexagonal Dihexagonal dipyramidal (6/ mmm) Color Iron-black to steel-gray; deep blue in transmitted light Crystal habit Tabular, six-sided foliated masses, granular to compacted masses

6

C

Carbon 12.01


000 Weaker forces hold the layers together.

Strong covalent bonds between yhe carbon atoms in each layer.


1989

population

32 43

Fuel Material Name, symbol Neutrons Protons Natural abundance Half-life

UO2 (2,6-2,8 w% enrichment)

Uranium-235, 235U 143 92

92

0.72% 703 800 000 years

Uranium 235

U


2 38 The fission of one atom of Uranium-235 141 92 1 n + 235 92U → 56 Ba + 36Kr + 3 0n

1 0


1996

population

Chemicals Name, symbol Parent isotopes Decay products Isotope mass Excess energy Binding energy Decay mode Decay energy

36 Uranium-235, 235U Pa,

235

Np, 239Pu

235

Th

231

235.0439299 u 40914.062 Âą 1.970 keV 1783870.285 Âą 1.996 keV Alpha 4.679 MeV


6


2001

population

29 55 141 56

Ba

1 0

n

Nuclear chain reaction 1 0

n

neutron

235 92

U

235 92

U

1 0

n

Heigh Energy

Uranium-235

nuclear

1 0

n

92 36

Kr


9 54 235 92

235 92

U

141 56

Ba

235 92

U

1 0

n 235 92

1 0

n

U

Heigh Energy 1 0

n

235 92

U

U

235 92

U

92 36

Kr

141 56

Ba

235 92

1 0

n

235 92

U

235 92

U

235 92

1 0

n

U

Heigh Energy 1 0

n

235 92

U

92 36

Kr

141 56 235

U

Ba

235 92

U


2004.12.31

Ignalina-1

2009.12.31

Ignalina-2

Closing

Reactor type

Th

Pa

2011

U

235

population

Ra

223

227 Closing

231

RBMK-1500

Reactor type

Ac

227

RBMK-1500

Fr

223

22 Th

231


Po Pb Start of 207 215 211 Tl At Bi Dismantling And 207 211 219 Pb Po Rn Decontamina219 tion 215 At Bi 215

211

361


21 3

2012

population

2012.04.23

The permission was received to perform „hot“ test of Storage Facility for very low level radioactive waste(VLLW). The permission enables to import radioactive waste in

2012.07.31

NPP was allowed to perform a Decommissioning Project

a very low level radioactive waste storage facility site and for the first time to perform test, using radioactive waste in the very low level radioactive waste storage facility.


359 gorod stremitelno stareet i pusteet


20 5

2014

population

2014.06.19

INPP was allowed to commence implementation of Unit 2 Turbine Hall equipment dismantling and decontamination.

2014.07.21

INPP Starts Unit 2 dismantling activities. Within the Building 117/2 equipment dismantling project approx. 1000 tons of equipment will be dismantled. After initial treatment

(including, if necessary, decontamination) 99 % of dismantling wastes are planned to be sent for realization, the others are subject to disposal. Within the project

of Unit 2 equipment dismantling, 20480 tons of equipment from Unit 2 Turbine Hall will be dismantled. The foreseen project completion date is July 2021.


532 ne dumayu, chto kto-to vernetsya, dazhe esli ÂŤminimalkuÂť podnimut do 1000 evro


18 965

2015

population

2015.02.18

Approximately 22 thousand tons of Equipment was Dismantled in Ignalina NPP.

Steel Steel atomic structure - iron atom - carbon atom

2015.12.23

INPP received a license for the construction and operation of the Landfill Facility for very short-lived level waste(VSLW). It is planned to start the construction of the Landfill Facility in mid-2016 and its operation at the end of 2018.


na periferii okazalis iz-za globalizatsii – vo vsem mire lyudi sezzhayutsya v krupnye goroda


2016

population

19 63 N

H

N 2016.01.15

During the entire decommissioning process, 30 thousand tons (30 099) of equipment and related structures have been dismantled at the INPP.

This is 23.2 percent of a total quantity planned to be dismantled during the entire decommissioning process by 2038.

2016.08.19

Dismantling of the Unit 1 Turbine Hall of INPP has been completed. INPP employees performed dismantling works since 2011 to July 2016.

The dismantled equipment weighs 18 159 tones and consists mostly of turbines, generators, heat exchangers, pumps, reinforcement and pipelines.

SerpenH tine O O

O


32 Smertnost ot upotrebleniya narkotikov - 10 chelovek na 100 tysyach naseleniya(v srednem po Litve 3,7).

Prestupnost, svyazannaya s priemom narkotikov – 234 sluchaya na 100 tysyach zhitelej (v srednem po Litve - 65).

Smertnost ot upotrebleniya alkogolya – 34 zhitelya na 100 tysyach naseleniya(v srednem po Litve – chut menee 26)

ya ne mazohist - esli v litve dlya menya ne budet uslovij, ya uedu


19 236

2017

population

2017.11.23

INPP obtained the construction license and permit to start operation of Near Surface Repository for low and intermediate level shortlived radioactive waste(LLW),(ILW).


6 Procent bezrabotnyx sredi rabotosposobnyx 13,4% (v srednem po Litve - 7,6). Bezrabotica sredi molodezhi 8,9 %(v srednem po Litve 4,3%).

Bezrabotnye sredi zhenshhin 15,8% (v srednem po Litve 7,4%). Chislo dolgosrochnyx bezrabotnyx(ishhut rabotu bolee goda) – 611 chelovek ili 3,1% naseleniya goroda (v srednem po Litve - 3,7).

hislo shkolnikov umenshilos v 3,5 raz s 2000 po 2017.

kak na porokhovoj bochke


2018.01.10

40 loaded casks with spent nuclear fuel are already at storage sites in the interim spent fuel storage facility (ISFS).

2021

population

16 900


atomnye goroda vsegda polnostyu zavisimy ot predpriyatiya, net predpriyatiya — net goroda


2026

End of Unit dismantling

2026

End of all D&D


esli molodyozh ne vozvrashchaetsya syuda, to i u goroda net budushchego


2038

End of demolition


a chego eshche zhdat ot goroda, poteryavshego svoj glavnyj istochnik zhiznennyx sil?


2040 92

U

235 Nuclide U Historic name (short) AcU Historic name (long) Actin Uranium Decay mode Îą Half-life (a=year) 703 800 000 a Energy released 4.678 MeV Product of 231 decay Th

703 800 Uranium 235


0

Radiactive Decay of Uranium-235


703802040 90

Th

Thorium 232

91

Pa

231 Nuclide Th Historic name (short) UY Historic name (long) Uranium Y

Decay mode Half-life (a=year) Energy released Product of decay

β−

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

231

25.52 h 0.391 MeV Pa

231

Pa

Pa

32 Protactinium 231

Protactinium α 32 760 y

5.150 MeV Ac

227


Alpha Decay Radiation emitted: 2α 4 Generic equation: A X→ A-4 X’+ 4α 2 Z Z-2

+ + + + + + + + +

+

+ + + + + + + +

Beta Decay Radiation emitted: -0 α 1 Generic equation: A X→ AX’+4α 2 Z Z+1

+ + + + + + + + +

+ + + + + + + +

Parent

Daughter

+ + Beta Particle


89

Ac

Actinium 227

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Ac

227

Ac Actinium β− 98.62% 21.772 a 0.045 MeV

21 Th

227

703844821 90

Th

Thorium 232

227 Nuclide Th Historic RdAc name (short) Historic name (long) Radioactinium Decay mode α Half-life 18.68 d (a=year) Energy released 6.147 MeV Product of 223 decay Ra

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Ac

227

Ac Actinium α 1.38% 21.772 a 5.042 MeV Fr

223


87

Fr

Francium 223

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Fr

223

AcK Actinium K β− 99.994% 22.00 min 1.149 MeV Ra

223

Body-centered cubic crystal structure for francium

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Fr

223

AcK Actinium K α 0.006% 22.00 min 5.340 MeV Fr

223


703844800 88

Ra

Radium 226

84

Po

Polonium 208

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Ra

223

AcX Actinium X α 11.43 d 5.979 MeV Rn

219

Po

215

AcA Actinium A α 99.99977% 1.781 ms 7.527 MeV Pb

211

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

215

Bi

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

215

β− 7.6 min 2.250 MeV Po

215

Po

AcA Actinium A β− 0.00023% 1.781 ms 0.715 MeV At

215

83

Bi

Bismuth 208


85

At

Astatine 210

82

Pb

207

Lead

83

Bi

Bismuth 208

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

215

At

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

211

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

211

α 0.1 ms 8.178 MeV Bi

211

Pb

AcB Actinium B β− 36.1 min 1.367 MeV Bi

211

Bi

AcC Actinium C α 99.724% 2.14 min 6.751 MeV Tl

207

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Bi

211

AcC Actinium C β− 0.276% 2.14 min 0.575 MeV Po

211


84

Po

Polonium 208

82

Pb

207

Lead

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Po

211

AcC’ Actinium C’ α 516 ms 7.595 MeV Pb

207

207 Nuclide Pb Historic name (short) AcD Historic name (long) Actinium D Decay mode Half-life (a=year) stable

Nuclide Historic name (short) Historic name (long) Decay mode Half-life (a=year) Energy released Product of decay

Po

211

AcC’’ Actinium C’’ β− 4.77 min 1.418 MeV Pb

207

81

Tl

Thalium 204


Lead atomic structure



ya by ne speshil spisyvat nebolshie goroda, no dlya ix ozhivleniya nuzhen tolchok


- a person living in Visaginas

- a person working at INPP

INPP - Ignalina Nuclear Power Plant

VLLW - very low level ra-dioactive waste

VSLW - very shortlived level waste

ILW - inter-mediate level short-lived radioactive waste

ISFS - interim spent fuel storage facility

ID&D - disman-tling and decontamination

Shchukina Tatsiana, Vilnius, 2018




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