Odpady jądrowe – globalny raport Focus Europe

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WNWR 2019  — 6. COSTS AND FINANCING

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US$700/kW for public power utilities and US$850/kW for investor-owned utilities.273 Two recent cases in the US highlight the inherent risks of insufficient financing. Exelon reported shortfalls in the decommissioning fund for three reactors ranging from US$6 million to US$83 million. Although, the NRC granted Exelon a 20-year license extension with the idea of allowing additional time to increase the decommissioning fund.274 In 2017, the German utilities have provisions of around €24.2 billion (US$26.7 billion) for scrapping up the 23 commercial reactors. This amount tops the cost estimate of €19.7 billion (US$22.2 billion). However, set aside provisions and cost estimates vary in scope. The provisions are to cover also costs for casks, conditioning the operational waste and transport, which were excluded from the estimate. So it remains open if the provisions are sufficient to cover the costs. In addition, due to the lack of transparency of the German decommissioning funding systems, the funds might not be invested in decommissioning, and tangible assets may continue to decline in value in the coming years.275 Table 6 compares the funding systems for decommissioning in the Czech Republic, France, and Germany. The table includes the funding system, the accumulation method, a total cost estimate for decommissioning, and the value of the set aside funds. TABLE 6: Funding systems for decommissioning in the Czech Republic, France, and Germany as of December 2018

CZECH REPUBLIC

FRANCE*

GERMANY

FUNDING SYSTEM

internal segregated and restricted fund

internal segregated and restricted fund

internal non-segregated and unrestricted

CONTROLLED BY

operators

operator

operators

ACCUMULATED BY

fee on generated electricity

levy on electricity price

provisions by operators

Temelín: US$ 847 million Dukovany: US$ 1 billion

US$ 35.7 billion for entire fleet

US$ 22.2 billion for 23 commercial reactors**

COST ESTIMATES

SET ASIDE FUNDS, (IN % OF COST ESTIMATE) Source: Notes:

US$410/kW to US$530/kW

US$450/kW for operational; US$1,350/kW for legacy

US$940/kW

Temelín: US$ 129 million (15%) Dukovany: US$ 276 million (28%)

US$ 20.8 billion (58%)

US$ 26.7 billion*** (n.a.)

Own depiction. * only applies to EDF ** excluding costs for casks, transport, and conditioning *** including provisions for casks, transport, and conditioning (also of operational waste); in 2017

FINANCING SCHEMES FOR INTERIM STORAGE The costs and the financing schemes for interim storage of nuclear waste, from both operation and decommissioning, depend heavily on the available waste management infrastructure and the existence of a disposal path for the waste. As there is currently no disposal solution for high-level waste and spent nuclear fuel, all nuclear countries are faced with both technological, organizational, and financial interim storage issues. Countries with no disposal solution for LILW increasingly face financing of storage for LILW with a growing number of reactor shutdowns. The costs for interim storage of waste can be paid from operational revenues (as at CEZ in the Czech Republic). In Switzerland, the operator has to pay directly for the expenses to handle the nuclear waste arising during the operation of a nuclear power plant and during the post-operational phase. In Germany, 273 Moriarty, J. 2017, “2017 Nuclear Decommissioning Funding Study”, Callan Institute. 274 Schneider et al. 2018. 275 Irrek and Vorfeld 2015.


Articles inside

Quantities of waste

2hr
pages 97-148

Summary

1min
page 94

Costs and financing

2min
page 93

Waste management policies and facilities

2min
page 92

Financing schemes for interim storage

2min
page 84

Integrated financing schemes

2min
page 87

6.4 Summary

5min
pages 88-89

Financing schemes for disposal

6min
pages 85-86

Quantities of waste

2min
page 91

Decommissioning costs

6min
pages 80-81

Accumulation of the funds

3min
page 78

Overview and nature of the funds

2min
page 77

5.5 Summary

2min
page 75

Extended storage

4min
pages 73-74

Deep borehole disposal

3min
page 70

LILW-repositories

3min
page 67

Host rocks

2min
page 66

5.1 Historical background

16min
pages 58-62

5.2 The context of nuclear waste management

5min
pages 63-64

4.7 Summary

2min
page 57

4.5 Risks from the reprocessing of spent nuclear fuel

5min
pages 53-54

Risks to nuclear workers

3min
page 51

Uranium mine tailings

3min
page 49

Health risks from exposures to uranium

3min
page 47

4.1 Radiation risks of nuclear waste

2min
page 45

Uranium mining

3min
page 48

4.2 Risks from uranium mining, mine tailings, enrichment, and fuel fabrication

2min
page 46

3.4 Summary

4min
pages 43-44

Decommissioning waste

2min
page 34

Uranium mining, milling, processing and fuel fabrication

1min
page 22

Executive summary

28min
pages 11-20

Operational waste

2min
page 32

2.4 Summary

2min
page 30

2.3.1 The IAEA classification

5min
pages 25-26

2.1 Types of waste: the nuclear fuel chain

2min
page 21

Foreword

5min
pages 3-4

Key Insights

2min
pages 9-10
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