Nuclear energy statistics

Transcription

1 Nuclear energy statistics Statistics Explained Data from February Most recent data: Further Eurostat information, Main tables and Database. Planned update: February This article provides recent statistics on nuclear energy in the European Union (EU). The production of electricity in nuclear plants within the EU-28 countries peaked at thousand gigawatt hours (GWh) in 2004, then slowly decreased to thousand GWh in In 2016, nuclear plants generated around 25.8 % of the electricity produced in the European Union, with nuclear reactors operating in 14 Member States. While data for nuclear electricity generation are available from 1990 onwards, data for the rest of variables indicated in this article are only available from 2009 onwards. Source : Statistics Explained ( - 19/06/2018 1

2 Infographic: Production of nuclear heat, thousand toesource: Eurostat (nrgind333a)for more information, see Table 1 Nuclear energy statistics 2

3 Table 1: Production of nuclear heat, ktoesource: Eurostat (nrg105a) Table 2: Gross electricity generation in nuclear power plants, GWhSource: Eurostat (nrg105a) Nuclear energy statistics 3

4 Figure 1: Gross electricity generation in nuclear power plants, GWhSource: Eurostat (nrg105a) Table 3: Enrichment capacity, tswusource: Eurostat (nrgind333a), See country codes Table 4: Production of fresh fuel elements, thmsource: Eurostat (nrgind333a), See country codes Figure 2: Production of fresh fuel elements, thmsource: Eurostat (nrgind333a) Nuclear energy statistics 4

5 Table 5: Production capacity of fresh fuel elements, thmsource: Eurostat (nrgind333a), See country codes Table 6: Production of MOX, thmsource: Eurostat (nrgind333a), See country codes Table 7: Production capacity of MOX, thmsource: Eurostat (nrgind333a), See country codes Table 8: Production of uranium and plutonium in reprocessing plants, thmsource: Eurostat (nrgind333a), See country codes Table 9: Production capacity of uranium and plutonium in reprocessing plants, thmsource: Eurostat (nrgind333a), See country codes Nuclear energy statistics 5

6 Table 10: Annual average burnup of definitively discharged irradiated fuel elements, GWd/tHMSource: Eurostat (nrgind333a) Main statistical findings Nuclear heat and gross electricity production The production of nuclear heat is considered in energy statistics as the energy source for nuclear energy, i.e. the total amount of heat obtained from the fission of nuclear fuels in nuclear reactors. This heat is subsequently used for the production of electricity or for other useful applications of heat. In 2016, there were nuclear reactors in operation in 14 EU Member States: Belgium, Bulgaria, the Czech Republic, Germany, Spain, France, Hungary, the Netherlands, Romania, Slovenia, Slovakia, Finland, Sweden and the United Kingdom. There are no nuclear facilities in the other EU Member States.The total production of nuclear heat in the EU-28 in 2016 was thousand tonnes of oil equivalent (toe), a decrease of 9.0 % compared with The main use of nuclear heat is the production of electricity. The gross electricity generation from nuclear plants within the EU-28 Member States in 2016 was thousand GWh, a 5.6 % increase compared with 1990, equivalent to an average increase of 0.2 % per year. However, two different trends can be distinguished over this period. From 1990 to 2004, the total amount of electricity produced in nuclear facilities in the EU-28 increased by 26.9 %, reaching a peak of thousand GWh in Then between 2004 and 2016, the total production of nuclear power in the EU-28 decreased by 16.7 % (see Table 2 1 ). The largest producer of nuclear power within the EU-28 in 2016 was, by far, France, with a 48.0 % share of the EU total, followed by Germany (10.0 %), the United Kingdom (8.5 %), Sweden (7.5 %) and Spain (7.0 %). These five Member States account for more than 81.1 % of the total amount of electricity generated in nuclear facilities in the EU-28 (see Figure 1). From 1990 to 2016, most of the countries operating nuclear facilities increased their production of nuclear electricity: the Czech Republic (+91.5 %), France (+28.4 %), Slovenia (+23.6 %), Slovakia (+22.7 %), Finland 1 This table has been built up by adding the following four indicators: Gross electricity generation Autoproducer CHP plants (Nuclear) + Gross electricity generation Autoproducer electricity only (Nuclear) + Gross electricity generation Main activity CHP plants (Nuclear) + Gross electricity generation Main activity electricity only (Nuclear). Nuclear energy statistics 6

7 (+20.7 %), Hungary (+16.9 %), the Netherlands (+13.1 %), the United Kingdom (+9.1 %), Spain (+8.0 %), Bulgaria (+7.5 %), Belgium (+1.9 %) and Romania (which started operation of its nuclear facilities in 1996). The remaining countries decreased their production of nuclear electricity, with Lithuania recording the most significant decrease as it ceased operation of its nuclear facilities in 2009, followed by Germany (-44.5 %) and Sweden (-7.6 %). Enrichment capacity Uranium found in nature consists largely of two isotopes, uranium-235 (U-235) and uranium-238 (U-238), with around 0.7 % of the total being U-235 and the remaining 99.3 % mostly the U-238 isotope. U-238 does not contribute directly to the fission process (though it does so indirectly by the formation of fissile isotopes of plutonium). In order to obtain suitable nuclear fuel, it is necessary to proceed to an isotope separation to concentrate ( enrich ) the U-235 isotope, from 0.7 % to 3-5 %. The enrichment capacity refers to the quantity of separative work units that could be enriched within a year by the operational enrichment plants (isotopic separation of uranium) and is measured in tonnes of separative work units (tswu). Only four Member States operated enrichment plants in 2014: Germany, the Netherlands, France and the United Kingdom, bringing the total enrichment capacity of the European Union to tswu in 2016 (see Table 3). Production and production capacity of fresh fuel elements The annual production of finished fresh fuel elements in nuclear fuel fabrication plants refers to the step following enrichment in the nuclear fuel cycle, which is the process in which the nuclear fuel is manufactured in order to be utilized in nuclear power reactors. The production capacity of fresh fuel elements refers to the annual production capacity of fuel fabrication plants. Rods or other partial products are not included. Fabrication plants producing MOX (mixed oxide) fuel are also excluded (MOX plants reprocess the spent fuel to extract the remaining uranium and plutonium from the fission products and other actinides; the reprocessed uranium and plutonium is then reused in the reactors). Production and production capacity of fresh fuel elements are measured in tonnes of heavy metal (thm). Only six Member States produced fresh fuel elements in 2016: Germany, Spain, France, Romania, Sweden and the United Kingdom (see Table 4 and Figure 2), with an overall decrease from 2009 to 2016 of 18.7 % in the EU. Belgium recorded the largest decrease in production of fresh fuel elements as it stopped its production in 2012, followed by Germany (-55.8 %), Spain (-20.0 %) and the United Kingdom (-3.9 %). The remaining countries increased their production, with France being, by far, the country which increased the most (+48.2 %), followed by Sweden (+13.9 %) and Romania (+0.6 %). Member States maintained or increased their capacity to produce fresh fuel elements during the period (see Table 5), with the exception of Belgium (which reduced its capacity to zero). Since 2010, France reported the highest capacity to manufacture nuclear fuel in the European Union. Production and production capacity of MOX fuel elements This section refers to the annual production and production capacity of finished fresh fuel elements in MOX (mixed oxide) fuel fabrication plants. Rods or other partial products are not included. The production and production capacity of MOX fuel elements are measured in thm. As shown in Table 6, only three countries produced MOX fuel elements in 2009: Belgium, France and the United Kingdom. However, the United Kingdom stopped its production in 2011 and Belgium in France is the only remaining Member State with a production of MOX (117 thm) in 2016 (see Table 7). Nuclear energy statistics 7

8 Production and production capacity of uranium and plutonium in reprocessing plants This section refers to the annual production and production capacity of uranium (U) and plutonium (Pu) in reprocessing plants, measured in thm. Reprocessing consists of recovering fissile and fertile materials from used nuclear fuel in order to provide fresh fuel for existing and future nuclear power plants. The process of reprocessing used nuclear fuel allows the recovery of unused uranium and plutonium from the original fuel and reduces the volume of material to be disposed of as high-level waste. As shown in Table 8, only two Member States operate nuclear reprocessing plants in the European Union: France and the United Kingdom. France increased its production of U and Pu in reprocessing plants by 20.3 % from 2009 to 2016, while the United Kingdom increased its production by 62.0 %. Production capacity remained constant for both countries, at thm for France and thm for the United Kingdom (see Table 9). Annual average burnup of definitively discharged irradiated fuel elements Burnup refers to the extent to which nuclear fuel is consumed in a reactor and is a measure of how much energy is extracted from a primary nuclear fuel source. It can be measured as the actual energy released per mass of initial fuel in gigawatt-days per tonne of heavy metal (GWd/tHM). The increase of fuel burnup leads to a reduction in the volume of spent fuel discharged and longer fuel cycles in the reactor. The annual average burnup of definitively discharged irradiated fuel elements is the calculated average of the burnup of the fuel elements which have been definitively discharged from the nuclear reactors during the concerned reference year. It excludes fuel elements which are temporarily discharged and are likely to be reloaded again later. Table 10 shows the annual average burnup for the EU-28 countries in the period As stated above, 14 Member states operated nuclear facilities in The Member State with the highest burnup in 2016 was Slovakia (54.8 GWd/tHM), followed by Germany (52.0 GWd/tHM estimated), Bulgaria (50.1 GWd/tHM), Spain (49.2 GWd/tHM), Belgium (48.9 GWd/tHM), Sweden (46.9 GWd/tHM) and Finland (46.0 GWd/tHM). Countries with the lowest average burnup in 2016 were Romania (7.3 GWd/tHM), the United Kingdom (32.7 GWd/tHM estimated) and the Czech Republic (38.9 GWd/tHM). Data sources and availability Data on annual nuclear energy statistics and data on the production of electricity have been used for all calculations. The most recent data available are for Data are available for all 28 EU Member States. In general, data are complete, recent and highly comparable across countries. This results in high accuracy. Context The basis for nuclear energy in Europe was laid in 1957 by the European Atomic Energy Community (Euratom). The sector represents an important source of electrical energy, since nuclear power stations currently produce around a third of the electricity consumed in the European Union. It is up to each Member State to decide whether or not to pursue the option of nuclear power. In June 2013, the European Commission proposed an amendment (COM(2013) 715 final) of the existing Directive establishing a framework for the nuclear safety of nuclear installations (Council Directive 2009/71). Among its many objectives the proposal aims to: set up an EU system of peer reviews for nuclear installations; increase transparency on nuclear safety matters; and establish new provisions for on-site emergency preparedness and response. In order for the energy statistics system to assist political decision-making by the European Union and its Member States and promote public debate which includes citizens, it must afford guarantees of comparability, transparency, flexibility and ability to evolve. For these reasons, statistics on nuclear energy were incorporated in Regulation (EC) No 1099/2008 on energy statistics, as amended by the Commission Regulation (EU) No Nuclear energy statistics 8

9 147/2013, as regards the establishment of a set of annual nuclear statistics and the adaptation of the methodological references according to NACE Rev. 2, which sets the framework for the production, transmission, evaluation and dissemination of nuclear energy statistics. This Regulation states that statistics concerning the civil use of nuclear energy must be transmitted annually by Member States to Eurostat. See also Electricity generation statistics first results Further Eurostat information Publications Energy, transport and environment indicators - Pocketbook November 2016 Main tables Energy (tnrg), see: Energy statistics - quantities (tnrgquant) Primary production of energy by resource (ten00076) Gross inland energy consumption by fuel type (tsdcc320) Database Energy (nrg), see: Energy statistics - quantities, annual data (nrgquant) Energy statistics - infrastructure (nrg11) Infrastructure - nuclear energy facilities (nrgind333a) Energy statistics - quantities, annual data (nrgquant) Energy statistics - supply, transformation, consumption (nrg10) Supply, transformation - nuclear energy - annual data (nrg104a) Supply, transformation, consumption - electricity - annual data (nrg105a) Energy statistics - quantities, monthly data (nrgquantm) Energy statistics - supply, transformation, consumption (nrg10m) Supply, transformation - nuclear energy - monthly data (nrg104m) Dedicated section Energy Methodology / Metadata Annual nuclear statistics (nrgind333a) (ESMS metadata file nrgind333aesms) Nuclear energy statistics 9

10 Source data for tables, figures and maps (MS Excel) Download Excel file Other information Regulation (EC) No 1099/2008 on energy statistics Regulation (EU) No 147/2013 on energy statistics External links Euratom Supply Agency European Commission, DG Energy, Nuclear Energy European Nuclear Society International Atomic Energy Agency World Nuclear Association Notes Nuclear energy statistics 10