UNITED KINGDOM

(updated on Dec. 2002)

1.  ENERGY, ECONOMIC AND ELECTRICITY INFORMATION

1.1.  General Overview

United Kingdom (UK) is an abbreviated form of United Kingdom of Great Britain and Northern Ireland. The UK consists of England, Northern Ireland, Scotland and Wales and lies in north-western Europe, occupying the major portion of the British Isles. The country's only land boundary is with the Republic of Ireland. The UK is separated from the coast of western Europe by the English Channel to the south and by the North Sea to the east. The northern and western shores are washed by the Atlantic Ocean.

As a result of the relative warmth of the nearby seas, UK has a moderate climate, rarely marked by extremes of heat or cold. The mean annual temperature ranges between 11.1°C in the south and 8.9°C in the north-east. Seasonal temperatures vary between a mean of about 16.1°C during July, the hottest month of the year, and 4.4°C during January, the coldest month. Fogs, mists, and overcast skies are frequent, particularly in the Pennine and inland regions. Precipitation, heaviest during October, averages about 760 mm annually in most of the UK.

During the Industrial Revolution the country became rapidly urbanized, and today more than 70% of the total population of 58.8 millions (1996) is concentrated in cities occupying 10% of the total land area. It has a mean population density of 243.2 persons per square km with an annual growth of 0.3% (1997). The population is highly urbanized, and the United Kingdom is the third most densely populated nation in Europe (after Netherlands and Belgium). The most densely populated part of the United Kingdom is England, with 376 persons per square km; Scotland has a density of 66 per square km; Wales, 141 per square km; and Northern Ireland, 123 per square km. Population in 1998 was 59.1 millions (Table 1) and is expected to grow to 60.3 millions in 2006.


TABLE 1. POPULATION INFORMATION


 

Average
annual
growth
rate
(%)

 

1970

1980

1990

2000

2001

2002

1990
to
2002

Population (millions)

55.6

56.5

57.8

58.7

58.9

59.1

0.2

Population density (inhabitants/km2)

227.2

230.8

235.9

239.7

240.4

241.2

 

 

Predicted population growth rate (%) 2002 to 2010

2.0

Area (1000 km2)

244.9

Urban population in 2002 as percent of total

89.6

Source: IAEA Energy and Economic Database.

 

1.1.1.  Economic Indicators

Gross Domestic Product (GDP) increased from US$ 1,240,569 million in 1997 to US$ 1,286,166 million in 1998 (Table 2).

1.1.2.  Energy Situation

Extensive coal deposits occur around the eastern and western edges of the Pennines, in South Wales, in the Midlands (Birmingham area), and in the Scottish Central Lowland. Easily accessible coal seams are, however, largely exhausted. Fortunately for the energy-hungry British economy, large deposits of petroleum and natural gas under the North Sea came into commercial production in 1975 and at present the United Kingdom is self-sufficient in petroleum (Table 3).


TABLE 2. GROSS DOMESTIC PRODUCT (GDP)


 

Average
annual
growth
rate
(%)

 

1980

1990

2000

2001

2002

1990
to
2002

GDP (millions of current US$)

535,744

987,642

1,429,384

1,498,450

1,545,285

3.8

GDP (millions of constant 1990 US$)

757,319

987,642

1,242,199

1,278,238

1,313,583

2

GDP per capita (current US$/capita)

9,478

17,096

24,355

25,449

26,161

3.6

Source: IAEA Energy and Economic Database.

 

TABLE 3. ESTIMATED ENERGY RESERVES


 

Estimated energy reserves in
(Exajoule)

 

Solid

Liquid

Gas

Uranium

Hydro

Total

 

 

 

 

(1)

(2)

 

Total amount in place

35.65

27.93

29.82

 

3.86

97.26

(1) This total represents essentially recoverable reserves.

(2) For comparison purposes a rough attempt is made to convert hydro capacity to energy by multiplying the gross theoretical annual capability (World Energy Council - 2002) by a factor of 10.

Source: IAEA Energy and Economic Database.

 

TABLE 4. ENERGY STATISTICS(*)


 

Average annual
growth rate (%)

 

1970

1980

1990

2000

2001

2002

1970
To
1990

1990
To
2002

Energy consumption

 

 

 

 

 

 

 

 

        - Total(1)

8.70

8.43

8.97

10.19

10.27

10.44

0.15

1.27

        - Solids(2)

3.90

2.98

2.66

1.71

1.67

1.67

-1.90

-3.81

        - Liquids

4.03

3.26

3.25

3.50

3.50

3.56

-1.06

0.76

        - Gases

0.47

1.80

2.31

4.02

4.09

4.21

8.29

5.13

        - Primary electricity(3)

0.30

0.39

0.75

0.97

1.01

0.99

4.66

2.39

 

 

 

 

 

 

 

 

 

Energy production

 

 

 

 

 

 

 

 

        - Total

4.42

8.33

8.83

11.67

11.85

12.06

3.52

2.63

        - Solids

3.68

3.18

2.33

0.90

0.82

0.75

-2.27

-9.04

        - Liquids

0.01

3.37

3.85

5.44

5.41

5.40

37.27

2.86

        - Gases

0.43

1.38

2.03

4.49

4.73

5.04

8.01

7.88

        - Primary electricity(3)

0.30

0.39

0.63

0.84

0.88

0.88

3.88

2.74

 

 

 

 

 

 

 

 

 

Net import (Import - Export)

 

 

 

 

 

 

 

 

        - Total

4.28

0.60

0.32

-1.41

-1.69

-2.37

-12.23

-18.29

        - Solids

-0.10

0.08

0.37

0.67

0.72

0.77

-6.48

6.37

        - Liquids

4.35

0.10

-0.34

-1.64

-1.56

-1.43

11.98

12.72

        - Gases

0.04

0.42

0.29

-0.43

-0.85

-1.71

11.08

-16.02

 

 

 

 

 

 

 

 

 

(1) Energy consumption = Primary energy consumption + Net import (Import - Export) of secondary energy.

(2) Solid fuels include coal, lignite and commercial wood.

(3)Primary electricity = Hydro + Geothermal + Nuclear + Wind.

(*) Energy values are in Exajoule except where indicated.

Source: IAEA Energy and Economic Database.


Energy consumption by the industrial sector has fallen dramatically since 1970, with a sharp reduction in the use of coal outweighing the increased consumption of gas and electricity. The greatest growth in energy consumption has been in the transport sector mainly due to the high level of transport activity, but electricity accounts for just under 1% of total energy consumption by this sector and is used only for rail transportation. Table 4 shows the basic energy statistics.

1.2.  Energy Policy

The formal aim of the UK Government's energy policy is to ensure secure, diverse, and sustainable supplies of energy in the forms that people and businesses want, and at competitive prices. The Government believes that this aim will best be achieved by means of competitive energy markets working within a stable framework of law and regulation to protect health, safety, and the environment. Government policies also aim to encourage consumers to meet their needs with less energy input, through improved energy efficiency. The key elements of the policy are:

In pursuit of these policies, the UK Government has privatized almost all the former state-owned energy sector (coal, electricity, gas). The only part of the generating sector remaining in public ownership is the newly formed company, Magnox Electric plc, which operates the UK's older Magnox nuclear power stations.

The Government has no direct operational control over any part of the energy sector, which comprises private companies operating on the basis of their own commercial criteria and judgement. This includes such things as what fuels to use for power generation, their source, and the location of facilities (although this remains subject to local planning permissions).

The gas and electricity industries are overseen by independent regulators, appointed by Government, whose role is to promote competition where possible and to protect consumers by providing a proxy for competition in areas of continuing monopoly. The requirement for regulatory intervention will diminish over time, as more sectors of the energy market become open to competition; but there will always be a need for regulation of monopoly infrastructure (the pipes and wires).

The final stage in the liberalization of the electricity supply market was concluded in May 1999 when all remaining public electricity supply monopolies were abolished. All customers may now choose their supplier. By September 1999, some 3.3 million had registered to change supplier and some 2.7 million had actually done so. To make supply competition work, a major programme of work was needed to build systems, commercial arrangements, trading arrangements, and licences which administer the change of supplier process. Following final agreement on the overall design of the arrangements, end to end testing of the systems commenced at the beginning of 1998 and was completed in all areas by the end of the year. Competition was then rolled out between September 1998 and May 1999, area by area according to the postcodes of the customers involved.

A new agreement, the Master Registration Agreement, has been established to oversee developments in the change of supplier process and a new company MRASCo has been established to manage such changes.

In the gas sector, competition first started in the industrial and commercial (non-tariff) market and there are currently 71 shippers competing in it. Domestic competition took longer to develop and was started by the Gas Act 1995. This Act opened up the market by creating three separate licences for Public Gas Transporters who operate the pipelines, shippers who buy gas wholesale from producers and sell it to suppliers who in turn sell it to consumers. The roll-out of domestic competition began in 1996 and was completed in May 1998. So far almost five million domestic customers (roughly a fifth of total domestic gas consumers) have changed supplier.

In January 1999 the Director General of Gas Supply, Callum McCarthy, also assumed the office of the Director General of Electricity Supply. This reflects "convergence" between gas and electricity markets - gas is now used for electricity generation, many companies are now operating in both gas and electricity markets so that consistency of regulation is therefore very important.

The Government remains responsible for establishing the framework of environmental regulation within which the energy sector operates, including permissible levels of emissions and disposal of wastes. But within these broad parameters, it is for companies to decide how best to meet the particular environmental requirements relevant to them.

1.3.  The Electricity System

1.3.1.  Structure of the Electricity Sector

Until 1990, when the institutional reform enacted for England and Wales by the Electricity Act 1989 was put into practice, the United Kingdom's power system had been organised as follows:

England and Wales: power generation and transmission was in the hands of the Central Electricity Generating Board (CEGB) - a power company exerting monopoly rights over these activities, who was responsible for supplying the twelve Regional Electricity Companies (RECs) in charge of distribution. The Electricity Council, an intercompany co-ordination agency, was in charge of assessing demand forecasts, investment and financing needs, and representing the industry.

Scotland: the system was supplied by two vertically integrated companies, the South of Scotland Electricity Board (SSEB) and the North of Scotland Hydro-Electric Board (NSHEB).

Northern Ireland: supplied by a vertically integrated monopolistic company, the Northern Ireland Electricity (NIE).

In 1990, all of the electricity supply industry, except for the nuclear generators, was privatised. The more modern nuclear power stations, the AGRs and the PWR, were subsequently privatised in 1996 under the holding company British Energy plc, formed with two subsidiaries, Nuclear Electric Ltd and Scottish Nuclear Ltd. Restructuring in 1998 led to Scottish Nuclear being renamed as British Energy Generation (UK) Ltd and Nuclear Electric as British Energy Generation Ltd. The older Magnox stations remain in the public sector and are operated as BNFL Magnox Generation.

In England and Wales around 23% of generation is carried out by Independent CCGTs; In respect of individual generators British Energy, Powergen, Innogy, BNFL, EDF, Edison and AES are all active in the market. There are eleven distribution companies and one transmission company, the National Grid Company (NGC). NGC also manages the despatch and administers the market in wholesale power.

The retailing or supply of electricity, formerly a monopoly of the local distribution company for all but the largest consumers, is now completely open to competition. In the case of Scotland two companies, Scottish Power and Scottish and Southern (formerly Scottish Hydro-Electric, but renamed after its merger with the English distribution company Southern Electric in 1998), each generate, transmit, distribute and supply electricity in their own areas. There are also other generators and suppliers.

Regulation of the electricity industry in England, Wales and Scotland is the responsibility of the Chief Executive of the Office of Gas and Electricity Markets (OFGEM). The Chief Executive is appointed by the Government to be an Independent regulator of the industry with statutorily defined duties to protect consumers and promote competition.

In Northern Ireland, generation and distribution were privatised independently. However, unlike theEnglish and Welsh case, no new generating companies were established, and the power plants were sold to already existing companies (Tractebel from Belgium and British Gas).

The wholesale electricity market in England and Wales has recently been reformed. On 27 March 2001, the Electricity Pool was replaced by New Electricity Trading Arrangements (NETA). The Electricity Pool was the trading arrangement in England and Wales by which electricity suppliers and large industrial users purchased electricity from the electricity generators. It was established in 1990 when the electricity industry was privatised, and operated under the Pooling and Settlement Agreement, a commercial arrangement between the generators and public suppliers of electricity. The Pool was used to determine which generating sets were called on to satisfy demand, and the price for wholesale electricity (the Pool price) was set for each half hour by the most expensive generator used during that period. All generators called to run received this price.

Among the long-standing criticisms of the Pool were that it was not open to electricity consumers, its operation was not transparent, it was a price setting mechanism rather than a true market, it facilitated the exercise of market power by generators owning large amounts of capacity, and it distorted the market to the disadvantage of flexible plant, including coal. These concerns led to a programme to replace the Pool with more competitive trading arrangements and this came to fruition in March 2001. The new trading arrangements are much more like those in other commodity markets. They comprise a series of bilateral markets (i.e. genuine two-side markets unlike the Pool) designed to encourage competition and liquidity and to remove distortions in the market.

The key features of NETA are:

OFGEM's review of the first twelve months of NETA found that, since 1998, the proposed reforms had contributed to a reduction in the wholesale price of electricity, which has flowed through into lower final prices. For instance, industrial and commercial electricity prices are down by 20-25%, while domestic electricity prices have declined by an average of 8% for those consumers who have not switched supplier and by 15% for those who have switched.

Whilst NETA has been successful in lowering prices, there remains some concern amongst unlicensed generators (particularly CHP and renewable plants) about the impact of NETA on their businesses. This stems from the fact that a number of unlicensed generators have unpredictable or inflexible output and might therefore be significantly (indirectly) exposed to imbalance prices. Although special arrangements have been developed to enable to such generators to reduce their potential exposure to imbalance, they remain concerned, particularly with current volatility in the Balancing Mechanism.

1.3.2.  Decision Making Process

Responsibility for formulating energy policy and for most of the measures to implement it rest with the central government. Within government, lead responsibility on energy matters outside Northern Ireland rested until 12th April 1992, with the Secretary of State for Energy. On 13th April 1992, the Secretary of State's responsibilities were transferred to the Secretary of State for Trade and Industry, except for energy efficiency, which was transferred to the Secretary of State for the Environment. Northern Ireland energy matters are the responsibility of the Secretary of State for Northern Ireland. The Secretary of State for Scotland is responsible for the electricity industry in Scotland. Because of the cross cutting nature of the issues many Ministers are involved particularly on policy for the efficient use of energy and for safety and the environment. Co-ordination between Ministers and Departments is achieved through the Cabinet, Ministerial and official committees and interdepartmental consultation.

The Secretary of State for Trade and Industry appoints the Director General of Electricity Supply who heads the Office of Electricity Regulation which now has over 200 staff including regional offices. The relevant Secretary of State and the Director General are the principal regulators of the industry and have been given specific powers in the new regime. Those of the Secretary of State include licensing and the regulation of certain matters related to the development of the physical electricity supply system, fuel stocking and the quality of the electricity supply. Those of the Director General include economic regulation and general supervision and enforcement of the licence regime (including the issue of new licences).

The building of a new power station with a capacity of over 50 MW requires the consent of the relevant Secretary of State. Environmental assessment is mandatory in most cases and is normally required in all other cases.

1.3.3.  Main Indicators

Contrasting with the 60s, since the mid 70s, power consumption growth rate has been moderate (under 1.3% accrued rate). The system was affected by market stagnation during the first five years of the 80s, primarily due to the behaviour of industrial demand which decreased 17% between 1979 and 1983. During the last years demand growth seems to have increased, with rates slightly above 2% per year. In this context, the expansion of public service's installed capacity has been very limited since 1985, and a gradual obsolescence of generating facilities must also be considered. In spite of fluctuations affecting electricity demand, its share in the country's energy requirements has been steadily increasing. In fact, in 1970 electricity accounted for 12% of final energy consumption, though its penetration steadily increased and reached 16% in 1991. The share of electricity was even more important in the industrial sector during the same period, and rose from 11% in 1970 to almost 21% in 1991.

Electricity has increased its share of final energy consumption, which has been steadily rising from 7% in 1960 to 11% in 1970 and 16% in 1991, mainly at the expense of coal and oil, and has been particularly successful in gaining an increased share of the industrial and commercial sectors. Electricity's share of industrial energy consumption has more than doubled since 1970, rising from 10% to 22% in 1991, due to structural changes and technological innovations. Electricity's share over energy consumption in the commercial sector increased significantly over the period from 18% in 1970 to 32% in 1991. The growth in electricity consumption was associated with increased use of air conditioning, growth in Information Technology applications and improvement in the standard of lighting in the commercial sector. Electricity, maintained its share of about 19% of energy consumption in the domestic sector due to the availability of lower priced off-peak electricity, growth in ownership of electrical appliances and more diverse applications.

The total electricity production in 1995 was 332.9 TW·h and the total installed electrical capacity was 69 GW(e). Fossil fuels contributed 74% to the electricity generated and hydro and nuclear 2% and 24%, respectively. Table 5 shows the historical electricity production and installed capacities and Table 6 the energy related ratios.


TABLE 5. ELECTRICITY PRODUCTION AND INSTALLED CAPACITY


 

Average annual
growth rate (%)

 

1970

1980

1990

2000

2001

2002

1970
To
1990

1990
To
2002

Electricity production (TW·h)

 

 

 

 

 

 

 

 

        - Total(1)

247.98

283.75

318.97

370.16

376.16

377.39

1.27

1.41

        - Thermal

217.34

242.79

253.31

283.11

284.59

286.52

0.77

1.03

        - Hydro

4.63

3.94

7.06

7.80

8.20

8.70

2.13

1.76

        - Nuclear

26.01

37.02

58.60

78.30

82.34

81.08

4.14

2.74

        - Geothermal

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Capacity of electrical plants (GWe)

 

 

 

 

 

 

 

 

        - Total

62.06

73.64

73.01

79.15

79.87

82.05

0.82

0.98

        - Thermal

56.48

64.73

56.43

61.96

62.57

64.86

0.00

1.17

        - Hydro

2.15

2.45

4.17

4.27

4.28

4.29

3.36

0.24

        - Nuclear

3.43

6.46

12.40

12.50

12.50

12.25

6.64

-0.10

        - Geothermal

 

 

 

 

 

 

 

 

        - Wind

 

 

0.01

0.42

0.52

0.64

 

47.64

 

 

 

 

 

 

 

 

 

(1) Electricity losses are not deducted.

(*) Energy values are in Exajoule except where indicated.

Source: IAEA Energy and Economic Database.


Traditionally, the United Kingdom's power system generation structure has relied on domestic coal. It should be pointed out that since the 60s, there has been a mutual dependence between the power and the coal industries. Coal fired plants contributed 60 and 70% to power generation thus becoming the major consumer and supporter of the country's coal industry.

While the power sector was in the hands of the State, its relationship with the coal industry was strongly supported, in spite of the discovery of important gas fields in the Northern Sea at the end of the 60s and of the early development of nuclear power generation, which also started during the 60s.


TABLE 6. ENERGY RELATED RATIOS


 

1970

1980

1990

2000

2001

2002

Energy consumption per capita (GJ/capita)

156

149

155

174

174

177

Electricity per capita (kW·h/capita)

4,155

4,691

5,389

6,271

6,465

6,345

Electricity Production/Energy production (%)

54

33

35

31

31

30

Nuclear/Total electricity (%)

10

13

18

21

22

21

Ratio of external dependency (%)(1)

49

7

4

-14

-16

-23

Load factor of electricity plants

 

 

 

 

 

 

      - Total (%)

46

44

50

53

54

53

      - Thermal

44

43

51

52

52

50

      - Hydro

25

18

19

21

22

23

      - Nuclear

87

65

54

72

75

76

(1) Net import / Total energy consumption.

Source: IAEA Energy and Economic Database.

 

2.  NUCLEAR POWER SITUATION

2.1.  Historical Development and current nuclear power organizational structure1

2.1.1.  Overview

In 1954 the Atomic Energy Authority Act established the United Kingdom Atomic Energy Authority (UKAEA) with responsibility for the UK nuclear power programme. The programme was to concentrate on the development of gas cooled reactors. The world's first industrial scale nuclear power station to demonstrate the commercial potential of generating electricity through nuclear fission, at Calder Hall in Cumbria, was commissioned by the UKAEA in 1956. Calder Hall was soon followed by a station of similar design, Chapelcross in Scotland; now operated by British Nuclear Fuels plc (BNFL), both these stations continue to generate electricity today after 40 years service.

Calder Hall and Chapelcross were Magnox prototypes, and nine full scale Magnox power stations were subsequently commissioned in the UK between 1962 and 1971. The Magnox stations were so-called from the magnesium alloy used to make the fuel can which contains the natural uranium fuel elements. The reactors use CO2 as coolant. These stations are now owned by BNFL Magnox Generation and four are still in operation, while five are in the process of being decommissioned.

In 1964, it was decided that the UK-developed advanced gas cooled reactor, the AGR, should succeed the Magnox as the principal source of nuclear power in the UK. Seven AGR stations, making use of enriched uranium fuel, were commissioned between 1976 and 1988 and these are now owneed and operated by British Energy.

As part of the reorganization of the UKAEA under the Atomic Energy Authority Act in 1971, BNFL was set up as a private limited company and subsequently transformed into a public limited company. The fuel cycle operations previously undertaken by the UKAEA were transferred to BNFL. BNFL now provides the full range of nuclear fuel cycle services to the UK and international markets and in 1994 it sheared its first irradiated fuel in the Thermal Oxide Reprocessing Plant (THORP), constructed to reprocess domestic and overseas spent oxide fuel.

In 1978 the Government had decided that for future nuclear power station design it would be appropriate to pursue the Pressurized Water Reactor (PWR) option, the most widely used design outside the UK. Subsequently the site at Sizewell in Suffolk was chosen and construction began in 1988 after a lengthy public inquiry. This station, Sizewell B, first supplied electricity to the national grid in February 1995.

UK Nirex Ltd was incorporated in 1985. Its owners are BNFL, BE and the UKAEA. Its development of a deep disposal facility for intermediate and long-lived low level wastes ceased in 1997.

In its 1988 White Paper "Privatising Electricity", the Government announced its intention to privatize the UK electricity supply industry. However, it later removed the nuclear stations from its privatization plans for economic reasons and also because of concerns about the operational performance of AGRs at that time and uncertainties over the financing of any new PWRs. The Government did however recognize that there were advantages to be gained from the continued operation of existing nuclear power stations, in their contribution to security of supply and protection of the environment.

When announcing the Government decision not to privatize nuclear power, the Secretary of State for Energy also announced that there was to be a moratorium on public sector construction of new nuclear stations (the Sizewell B PWR was already being built) until the Government conducted a review of the prospects for nuclear power.

2.1.2.  Organizational Chart

A simplified chart of main operations of the United Kingdom nuclear power programme is shown in Figure 1.


figure 1

FIG. 1. Structure of the main Operations of UK's Nuclear Power Programme


2.2. Nuclear Power Plants: Status and Operations

Thirty three nuclear units are in operation in the United Kingdom, representing a total capacity of 11.7 GW(e) and supplying almost 25% of the electricity generated in the country. Table 7 shows the status of the nuclear power plants in the UK, Sizewell B, was connected to the grid in February 1995 and achieved full load in September 1995.

Sizewell B is an modern PWR, built by the UK industry under a licence from the American manufacturer Westinghouse, which incorporates a number of enhanced safety features to meet more stringent safety standards. The unit was completed on schedule and within the provisional budget. All the other nuclear units in operation in the UK are gas-cooled reactors of Magnox and advanced gas cooled (AGR) types. Substantial improvements in the performance of the AGRs have been attained during recent years. The Prototype Fast Breeder at Dounreay, which was commissioned in 1976, is currently under-going decommissioning.

As of April 1998, the national safety authority, Nuclear Installations Inspectorate (NII), has authorized lifetime extension for all the Magnox units, which had reached thirty years of operation. Although the authorizations from NII do not specify the duration of the lifetime extension, the British regulators have indicated that no safety factors have been identified which would limit the operation of the Magnox reactors to less than 40 years and 50 years for Calder Hall and Chapelcross.

NII has accepted that the Periodic Safety Reviews of the AGR have shown that all the stations can be expected to operate safely for at least a further 10 years, subject to satisfactory outcomes from routine inspection activities. The NII's assessment of the Periodic Safety Review Sizewell B is scheduled for completion in.


TABLE 7. STATUS OF NUCLEAR POWER PLANTS


Station

Type

Capacity
MW

Operator

Status

Reactor
Supplier

BRADWELL

GCR

123

BNFL

Shut down

TNPG

BRADWELL

GCR

123

BNFL

Shut down

TNPG

CALDER HALL

GCR

50

BNFL

Shut down

UKAEA

CALDER HALL

GCR

50

BNFL

Shut down

UKAEA

CALDER HALL

GCR

50

BNFL

Shut down

UKAEA

CALDER HALL

GCR

50

BNFL

Shut down

UKAEA

CHAPELCROSS

GCR

50

BNFL

Shut down

UKAEA

CHAPELCROSS

GCR

50

BNFL

Shut down

UKAEA

CHAPELCROSS

GCR

50

BNFL

Shut down

UKAEA

CHAPELCROSS

GCR

50

BNFL

Shut down

UKAEA

DUNGENESS-A

GCR

225

BNFL

Operational

TNPG

DUNGENESS-A

GCR

225

BNFL

Operational

TNPG

DUNGENESS-B1 UNIT A

AGR

555

BE

Operational

APC

DUNGENESS-B2 UNIT B

AGR

555

BE

Operational

APC

HARTLEPOOL-A1 UNIT A

AGR

605

BE

Operational

NPC

HARTLEPOOL-A2 UNIT B

AGR

605

BE

Operational

NPC

HEYSHAM-1 UNIT A

AGR

575

BE

operational

NPC

HEYSHAM-1 UNIT B

AGR

575

BE

Operational

NPC

HEYSHAM-2 UNIT A

AGR

625

BE

Operational

NPC

HEYSHAM-2 UNIT B

AGR

625

BE

Operational

NPC

HINKLEY POINT-A

GCR

235

BNFL

Shut down

EE/B&W/T

HINKLEY POINT-A

GCR

235

BNFL

Shut down

EE/B&W/T

 

Station

Construction
Date

Criticality
Date

Grid
Date

Commercial
Date

Shutdown
Date

BRADWELL

01-Jan-57

01-Aug-61

01-Jul-62

01-Jul-62

2002

BRADWELL

01-Jan-57

01-Apr-62

06-Jul-62

12-Nov-62

2002

CALDER HALL

01-Jan-57

01-Apr-62

06-Jul-62

12-Nov-62

2002

CALDER HALL

01-Aug-53

01-Dec-56

01-Feb-57

01-Feb-57

2003

CALDER HALL

01-Aug-55

01-Mar-58

01-Mar-58

01-May-58

2003

CALDER HALL

01-Aug-55

01-Dec-58

01-Apr-59

01-Apr-59

2003

CHAPELCROSS

01-Oct-55

01-Nov-58

01-Feb-59

01-Mar-59

2004

CHAPELCROSS

01-Oct-55

01-May-59

01-Jul-59

01-Aug-59

2004

CHAPELCROSS

01-Oct-55

01-Aug-59

01-Nov-59

01-Dec-59

2004

CHAPELCROSS

01-Oct-55

01-Dec-59

01-Jan-60

01-Mar-60

2004

DUNGENESS-A

01-Jul-60

01-Jun-65

21-Sep-65

28-Oct-65

(2006)

DUNGENESS-A

01-Jul-60

01-Sep-65

01-Nov-65

30-Dec-65

(2006)

DUNGENESS-B1 UNIT A

01-Oct-65

04-Dec-85

29-Dec-85

01-Apr-89

 

DUNGENESS-B2 UNIT B

01-Oct-65

23-Dec-82

03-Apr-83

01-Apr-85

 

HARTLEPOOL-A1 UNIT A

01-Oct-68

24-Jun-83

01-Aug-83

01-Apr-89

 

HARTLEPOOL-A2 UNIT B

01-Oct-68

09-Sep-84

31-Oct-84

01-Apr-89

 

HEYSHAM-1 UNIT A

01-Dec-70

06-Apr-83

09-Jul-83

01-Apr-89

 

HEYSHAM-1 UNIT B

01-Dec-70

03-Jun-84

11-Oct-84

01-Apr-89

 

HEYSHAM-2 UNIT A

01-Aug-80

23-Jun-88

12-Jul-88

01-Apr-89

 

HEYSHAM-2 UNIT B

01-Aug-80

01-Nov-88

11-Nov-88

01-Apr-89

 

HINKLEY POINT-A

01-Nov-57

01-May-64

16-Feb-65

30-Mar-65

2000

HINKLEY POINT-A

01-Nov-57

01-Oct-64

19-Mar-65

05-May-65

2000

 

TABLE 7. CONTINUED, STATUS OF NUCLEAR POWER PLANTS


Station

Type

Capacity
MW

Operator

Status

Reactor
Supplier

HINKLEY POINT-B UNIT A

AGR

610

BE

Operational

TNPG

HINKLEY POINT-B UNIT B

AGR

610

BE

Operational

TNPG

HUNTERSTON-B1 UNIT A

AGR

595

BE

Operational

TNPG

HUNTERSTON-B2 UNIT B

AGR

595

BE

Operational

TNPG

OLDBURY-A

GCR

217

BNFL

Operational

TNPG

OLDBURY-A

GCR

217

BNFL

Operational

TNPG

SIZEWELL-A

GCR

210

BNFL

Operational

EE/B&W/T

SIZEWELL-A

GCR

210

BNFL

Operational

EE/B&W/T

SIZEWELL-B

PWR

1188

BE

Operational

PPC

TORNESS UNIT A

AGR

625

BE

Operational

NNC

TORNESS UNIT B

AGR

625

BE

Operational

NNC

WYLFA

GCR

490

BNFL

Operational

EE/B&W/T

WYLFA

GCR

490

BNFL

Operational

EE/B&W/T

BERKELEY

GCR

138

BNFL

Shut Down

TNPG

BERKELEY

GCR

138

BNFL

Shut Down

TNPG

DOUNREAY FR

FBR

14

UKAEA

Shut Down

UKAEA

HUNTERSTON-A1

GCR

150

BNFL

Shut Down

GEC

HUNTERSTON-A2

GCR

150

BNFL

Shut Down

GEC

PFR DOUNREAY

FBR

234

UKAEA

Shut Down

TNPG

TRAWSFYNYDD

GCR

195

BNFL

Shut Down

APC

TRAWSFYNYDD

GCR

195

BNFL

Shut Down

APC

WINDSCALE AGR

AGR

32

UKAEA

Shut Down

VARIOUS

WINFRITH SGHWR

SGHWR

92

UKAEA

Shut Down

ICL/FE

 

Station

Construction
Date

Criticality
Date

Grid
Date

Commercial
Date

Shutdown
Date

HINKLEY POINT-B UNIT A

01-Sep-67

24-Sep-76

30-Oct-76

02-Oct-78

 

HINKLEY POINT-B UNIT B

01-Sep-67

01-Feb-76

05-Feb-76

27-Sep-76

 

HUNTERSTON-B1 UNIT A

01-Nov-67

31-Jan-76

06-Feb-76

06-Feb-76

 

HUNTERSTON-B2 UNIT B

01-Nov-67

27-Mar-77

31-Mar-77

31-Mar-77

 

OLDBURY-A

01-May-62

01-Aug-67

07-Nov-67

31-Dec-67

(2013)

OLDBURY-A

01-May-62

01-Dec-67

06-Apr-68

30-Sep-68

(2013)

SIZEWELL-A

01-Apr-61

01-Jun-65

21-Jan-66

25-Mar-66

(2006)

SIZEWELL-A

01-Apr-61

01-Dec-65

09-Apr-66

15-Sep-66

(2006)

SIZEWELL-B

18-Jul-88

31-Jan-95

14-Feb-95

22-Sep-95

 

TORNESS UNIT A

01-Aug-80

25-Mar-88

25-May-88

25-May-88

 

TORNESS UNIT B

01-Aug-80

23-Dec-88

03-Feb-89

03-Feb-89

 

WYLFA

01-Sep-63

01-Nov-69

24-Jan-71

01-Nov-71

(2016)

WYLFA

01-Sep-63

01-Sep-70

21-Jul-71

03-Jan-72

(2016)

BERKELEY

01-Jan-57

01-Aug-61

12-Jun-62

12-Jun-62

31-Mar-89

BERKELEY

01-Jan-57

01-Mar-62

24-Jun-62

20-Oct-62

26-Oct-88

DOUNREAY FR

01-Mar-55

14-Nov-59

01-Oct-62

01-Oct-62

01-Mar-77

HUNTERSTON-A1

01-Oct-57

01-Aug-63

05-Feb-64

05-Feb-64

30-Mar-90

HUNTERSTON-A2

01-Oct-57

01-Mar-64

01-Jun-64

01-Jul-64

31-Dec-89

PFR DOUNREAY

01-Jan-66

01-Mar-74

10-Jan-75

01-Jul-76

31-Mar-94

TRAWSFYNYDD

01-Jul-59

01-Sep-64

14-Jan-65

24-Mar-65

06-Feb-91

TRAWSFYNYDD

01-Jul-59

01-Dec-64

02-Feb-65

24-Mar-65

04-Feb-91

WINDSCALE AGR

01-Nov-58

09-Aug-62

01-Feb-63

01-Mar-63

03-Apr-81

WINFRITH SGHWR

01-May-63

01-Sep-67

01-Dec-67

01-Jan-68

11-Sep-90

Source: IAEA Power Reactor Information System as of 31-Dec-2004 Years between brackets are based on authorized lifetime extension by NII.


In June 2002, following an economic review of the operation of its Magnox reactor fleet, BNFL announced it was bringing forward the closure dates of Calder Hall and Chapelcross power stations to March 2003 and March 2005 respectively. Both stations have relatively small generating capacity giving rise to relatively high overhead costs making them uneconomic against a background of continuing low wholesale electricity prices.

Notwithstanding British Energy's decision, the Government has concluded that it is reasonable to assume that the existing technology will not be lost and that the option to build new nuclear power stations will be available for some time to come, albeit with first-of-a-kind costs attached. Through Sizewell B, which is a modern PWR reactor built only recently in line with international standards, British Energy has access to the latest technology in this area. The company has made it clear that it will be able to keep up with the latest developments, both through operating its new station and by taking on overseas consultancy projects.

In November 1995, the Atomic Energy Authority Act 1995 became law, enabling the Authority to privatize its commercial activities, which have been known in recent years as AEA Technology.

2.3.  Supply of NPPs

The Services provided by AEA Technology, British Energy, British Nuclear Fuels, and many more industrial companies cover a very wide range of activities. These include component supply, fuel supply, fuel reprocessing, services in the area of radwaste management and aspects of advanced reactor engineering.

2.4.  Operation of NPPs

The UK's AGRs and single PWR are now owned and operated by the holding company British Energy through its subsidiaries . The Magnox stations have been transferred to British Nuclear Fuels plc (BNFL). BNFL now owns and operatessix Magnox stations in both England and Scotland and is in the process of decommissioning a further five.

2.5.  Fuel Cycle and Waste Management

Apart from raw uranium mining, the UK has an independent nuclear fuel cycle capability. The full range of the nuclear fuel cycle services - from fuel enrichment and manufacture through to spent fuel reprocessing, transport, waste management and decommissioning - are provided to the UK and international markets by British Nuclear Fuels plc (BNFL), which is wholly owned by the Government.

The Government announced in July 1999 that they are looking to introduce a Private Public Partnership into BNFL, subject to progress towards achieving a range of safety, health, environmental and business performance targets, and further work by DTI and its advisers.

Part of the Government's 1995 review into the future prospects of nuclear power in the United Kingdom confirmed that BNFL would continue to offer customers the full range of nuclear fuel cycle services and restated the Government's continuing support for the company in developing its overseas markets.

Fuel enrichment in the UK is carried out at Capenhurst near Chester by Urenco Capenhurst Limited, a wholly owned subsidiary of Urenco Ltd., the holding company for the Urenco Group. The Urenco Group is the joint Anglo-Dutch-German organization which operates uranium enrichment plants in all three countries using centrifuge technology.

Uranium refining and conversion are carried out at BNFL's Springfields site which processes several tonnes of uranium each year for UK and overseas customers. Springfields has the expertise to manufacture fuel for all major reactor designs world-wide and a new, integrated fuels complex was officially opened in July 1996.

Spent fuel from the UK's Magnox and AGRs and overseas light water reactors is reprocessed at BNFL's Sellafield site. The company's Thermal Oxide Reprocessing Plant (THORP) began operations in March 1994 and has so far sheared and dissolved more than 2000 tonnes of spent fuel. It is expected that some 7,000 tonnes of spent nuclear fuel will be reprocessed in its first ten years of operation.

BNFL have constructed and are commissioning the Sellafield Mixed Oxide (MOX) fuel plant which will manufacture MOX fuel for overseas customers using a blend of plutonium (recovered from the reprocessing of spent fuel) and uranium.

Nirex's principal current activity is to provide advice to waste producers on the transportation and packaging of wastes by means of its system of letters of comfort. Its long term future will be determined by the results of the Government's current review of radioactive waste management policy.

Most low level waste (LLW) is disposed of at either BNFL's Drigg surface disposal facility or at the disposal facilities at UKAEA's Dounreay site. Long-lived LLW is stored and will be disposed of in Nirex' proposed facility. Intermediate level waste (ILW) is currently stored, mainly at the centres of production, and will be disposed of in Nirex' proposed facility. High level wastes are currently stored, either raw or in vitrified form, mainly by BNFL at its Sellafield site, for a minimum of 50 years to cool. No decisions on disposal have yet been taken and these will form part of a forthcoming Government review, but the Government is undertaking a research project to study this issue.

Nuclear sites are licensed by the Nuclear Installations Inspectorate (NII), the regulator responsible for overseeing their safe operation. Disposals of radioactive wastes may only be made under authorizations granted by the Environment Agency (or in Scotland the Scottish Environment Protection Agency) but under operational agreements between them and the NII, the latter oversees waste operations on licensed sites.

2.6.  Research and Development

Nuclear accounted for some 47% of the DTI's Energy R&D expenditure in 1995-96 (45% in 1994-95). This expenditure went on research into decommissioning and radioactive waste management services, safety and health, fusion and safeguards commissioned with the UK Atomic Energy Authority (a public corporation) and the Joint European Torus (JET) project run by Euratom. British Energy and BNFL are directly responsible for their own research expenditure.

2.7.  International Co-operation and Initiatives

The United Kingdom is a member of the European Union (EU), the OECD/NEA and the IAEA as well as other bilateral and multilateral organizations. The United Kingdom Government supports EU programmes the field of nuclear safety and nuclear waste management and participates in many OECD/NEA and IAEA projects.

2.8.  Human Resources Development

3.  NATIONAL LAWS AND REGULATIONS

3.1.  Safety Authority and the Licensing Process

The safety of UK nuclear installations, and the protection of employees and the public from the potential hazards caused by them, is governed principally by provisions in the Nuclear Installations Act 1965, the Health and Safety at Work etc. Act 1974, the Ionising Radiation Regulations 1999 made under it and the Radioactive Substances Act 1993. No site may be used for the construction or operation of a commercial nuclear installation unless appropriate approval or planning permission has been given and a nuclear site licence is granted by the Health and Safety Executive (HSE). The Nuclear Installations Inspectorate (NII) is that part of the HSE with delegated responsibility for administering the licensing function.

The NII will not grant a nuclear site licence unless satisfied that a prospective operator has the capacity to meet all their stringent safety requirements from design through to decommissioning, in adherence to the licence conditions attached to the site licence. So as to demonstrate to the NII that safety will be properly controlled at all stages of the lifecycle of plant' on licensed sites, the operator is required to produce a comprehensive written "safety case" for each plant. The safety case must be continually revised and updated throughout the plant's operation, to take account of any changes in its operating conditions, and a new safety case be similarly established and maintained for decommissioning.

Ultimate responsibility for the safety of a nuclear installation is legally the responsibility of the operating company. They must execute all licence requirements to the NII's satisfaction. The principle is the same whether the operating company is in the public or private sector. The NII carefully monitors the performance of nuclear installations against exacting standards and conditions. Should there be any doubt about a licensee's continued ability to meet its obligations, the Inspectorate has extensive powers. It can, for example, include additional licence conditions at any time, direct the cessation of plant operation, and ultimately direct that it be shut down altogether. An operating company may surrender a licence (or it may be revoked by the NII), but still retains responsibility for safety of the site until either a new licence for the site is issued or the HSE is satisfied that there ceases to be a danger from ionising radiation from the site.

Discharges to the environment from licensed sites of radioactive material in gaseous or liquid form is strictly controlled by means of authorizations granted by the Environment Agency in England and Wales; and in Scotland by the Scottish Environment Protection Agency, as is disposal of solid radioactive wastes. Disposal of Intermediate and High Level Waste is a matter of ongoing policy development. There is close liaison between NII, the Environment Agency and the Scottish Environment Protection Agency under the terms of Memoranda of Understanding which set out the lead roles of the organizations and requirements for liaison and consultation.

As far as security regulation is concerned, security at sites operated by certain designated civil nuclear operators is regulated under a system of Ministerial Directions issued under the Atomic Energy Authority Act 1954 and the Nuclear Installations Act 1965. Nuclear power stations and associated laboratories are regulated separately under the Nuclear Generating Stations (Security) Regulations 1996.

The UK intends to bring in new regulations, the Nuclear Industries Security Regulations, which will provide a single, clarified and updated legislative basis for security regulation of those holding nuclear material and sensitive nuclear information. The regulations will also introduce direct regulation of those transporting nuclear material. It is intended that these regulations will come into force early in 2003.

3.2. Main National Laws and Regulations in Nuclear Power

GENERAL LEGISLATION

4.  CURRENT ISSUES AND DEVELOPMENTS ON NUCLEAR POWER

4.1.  Energy Policy

The conclusions of the Government's 1995 nuclear review confirmed the Government's commitment to nuclear power, provided it remained competitive and was able to maintain rigorous standards of safety and environmental protection. However, the Government recognized, against the background of the current electricity market, that providing public sector support for a new nuclear power station would constitute a significant intervention in the electricity market and that current and foreseeable circumstances did not warrant such an intervention.

The review also concluded that moving as much of the nuclear generating industry as was practicable into the private sector, with its associated liabilities, would bring benefits for the industry, electricity consumers and the taxpayer. Back in 1989, the nuclear stations had had to be excluded from the privatization of the other parts of the electricity supply industry. However, the review recognized that the overall performance of the nuclear generators had been transformed in the period since. They had removed many of the uncertainties about the costs of managing spent fuel and waste and decommissioning plant. The performance of the Advanced Gas-cooled Reactors (AGRs) had vastly improved and a Pressurized Water Reactor (PWR), Sizewell B, was now in operation and performing excellently.

Accordingly the nuclear generating industry was reorganized to enable its more modern part, with its associated liabilities, to be transferred to the private sector Two subsidiaries, Nuclear Electric Ltd (NEL) (now British Energy Generation Ltd) and Scottish Nuclear (SN) (now British Energy Generation (UK) Ltd) are now owned by a Great Britain-wide holding company, British Energy Generation plc which is responsible for seven AGRs and Sizewell B. British Energy was privatised in July 1996.

The older plant, six operating Magnox stations, five closed Magnox stations and the associated liabilities, remain in the public sector and are the responsibility of British Nuclear Fuels plc, the UK's government owned supplier of reprocessing and other nuclear fuel cycle services. BNFL operate two Magnox stations of their own, as BNFL Magnox Generation.

4.2.  Privatisation and deregulation

The electricity sector has seen a large amount of merger and acquisition activity over the last year, with vertical integration on the increase. Responding to this, British Energy (BE) is seeking to grow its supply business and broaden its customer base and has proposed to acquire the retail electricity and gas supply business of SWALEC plc, a subsidiary of Hyder. The Secretary of State for Trade and Industry announced on 23 September 1999 that, having received satisfactory assurances, he had decided not to refer the proposed acquisition to the competition Commission.

 

REFERENCES

[1]

IAEA Energy and Economic Data Base (EEDB).

[2]

IAEA Power Reactor Information System (PRIS).

[3]

Data & Statistics, the World Bank, www.worldbank.org/data.

 

Appendix 1

INTERNATIONAL, MULTILATERAL AND BILATERAl AGREEMENTS

AGREEMENTS WITH THE IAEA

bullet 

bullet Amendments of Article VI & XIV.A of the IAEA statute

Ratified:

2 January 2001

bullet Voluntary offer INFCIRC/263

Entry into force:

14 August 1978

bullet Additional Protocol (GOV/1998/30)

Signature:

22 September 1998

bullet Improved procedures for designation of safeguards inspectors

Both proposals not acceptable. Offers support in improving procedures

17 February 1989

bullet Agreement on privileges and immunities

Entry into force:

19 September 1961

bullet Supplementary agreement on provision of technical assistance (for Hong Kong) by the IAEA

Entry into force:

4 February 1983

OTHER RELEVANT INTERNATIONAL TREATIES etc.

bullet NPT

Entry into force:

27 November 1968

bullet EURATOM

Member

bullet Convention on physical protection of nuclear material

Entry into force:

6 October 1991

bullet Convention on early notification of a nuclear accident

Entry into force:

12 March 1990

bullet Convention on assistance in the case of a nuclear accident or radiological emergency

Entry into force:

12 March 1990

bullet Vienna conventions on civil liability for nuclear damage

Signature:

11 November 1964

bullet Paris conventions on civil liability for nuclear damage

Signature:

23 February 1966

bullet Joint protocol

Signature:

21 September 1988

bullet Protocol to Amend the Vienna Convention on Civil Liability for Nuclear Damage

Not signed

 

bullet Convention on Supplementary
Compensation for Nuclear Damage

Not signed

 

bullet Convention on nuclear safety

Entry into force:

24 October 1996

bullet Joint convention on the safety of spent fuel management and on the safety of radioactive waste management

Entry into force:

18 June 2001

bullet ZANGGER Committee

Member

 

bullet Nuclear Export Guidelines

Adopted

 

bullet Acceptance of NUSS Codes

Summary: Codes found appropriate as guidelines. Generally consistent with national regulatory requirements.

11 October 1988

bullet Nuclear Suppliers Group

Member

 

 

Appendix 2

DIRECTORY OF THE MAIN ORGANIZATIONS, INSTITUTIONS AND COMPANIES INVOLVED IN NUCLEAR POWER RELATED ACTIVITIES

NATIONAL ATOMIC ENERGY AUTHORITY

Export Control and Non-Proliferation Directorate (XNP)
Department of Trade & Industry
4 Abbey Orchard Street
London, SW1P 2HT
United Kingdom

Tel: +44-20 7215 0720
Fax: +44-20 7215 0722

SECURITY

Office for Civil Nuclear Security
146 Harwell
Didcot
Oxford OX11 0RA

Tel: +44-1235 432925
Fax: +44-1235 432927

NUCLEAR RESEARCH INSTITUTES

United Kingdom Atomic Energy Authority
Marshall Building
521 Downs Way
Harwell
Didcot
Oxfordshire, OX11 0RA

Tel: +44-235 431000
http://www.ukaea.org.uk

Central Laboratory of the Research Councils
(CLRC)

http://www.cclrc.ac.uk

OTHER NUCLEAR ORGANISATIONS

British Energy Generation Limited
Barnwood HQ
Barnett Way
Gloucester, GL4 3RS
Main activities: Responsible for operating AGR and PWR nuclear power stations in England and Wales

Tel: +44-1452 652222
Fax: +44-1452 652776

British Energy Generation (UK) Ltd
3 Redwood Crescent
Peel Park
East Kilbride
Glasgow, G74 5PR
Main activities: Responsible for operating AGR nuclear power stations in Scotland

Tel: +44-13552 62000
Fax: +44-13552 62626
http://www.british-energy.co.uk

Scottish Power:

http://www.scottishpower.plc.uk

Magnox Electric plc
Berkeley Centre
Berkeley
Gloucestershire, GL13 9PB
Main activities: Responsible for operating
Magnox nuclear power stations in the UK.

Tel: +44-1453 81045
Fax: +44-1453 81252

AEA Technology
Building 329
Harwell
Didcot
Oxfordshire, OX11 0RA

Tel: +44-235 431000
http://www.aeat-env.com

UK Nirex Ltd
Curie Avenue
Harwell
Didcot
Oxfordshire, OX11 0RH

Tel: +44-1235 825500
Fax: +44-1235 831239
http://www.nirex.co.uk

British Nuclear Fuels plc (Head Office)
Risley Warrington
Cheshire, WA3 6AS

Tel: +44-1925 832000
Fax: +44-1925 82271
http://www.bnfl.com/website.nsf/index.htm

British Nuclear Fuels plc (Fuel Manufacture)
Preston
Lancashire, PR4 0XJ

Tel: +44-1772 762000
Fax: +44-1772 762155

British Nuclear Fuels plc (Fuel Enrichment)
Capenhurst
Cheshire, CH1 6ER

Tel: +44-151-339 4101
Fax: +44-151-347 3661

British Nuclear Fuels plc (Reprocessing)
Seascale
Cumbria, CA20 1PG

Tel: +44-19467 28333
Fax: +44-19467 28987

Urenco Ltd
18 Oxford Road
Marlow
Buckinghamshire,SL7 2NL

Tel: +44-1628 486941
Fax: +44-1628 475867
http://www.urenco.com

National Radiological Protection Board (NRBP)
Chilton
Didcot
Oxon, OX11 0RQ

Tel: +44-1235 831600
Fax: +44-1235 833891
http://www.nrpb.org.uk

Department of Environment, Food and Rural Affairs
Ashdown House
123 Victoria Street
London, SW1 6RB

Tel: +44-20 7890 3000

HM Nuclear Installations Inspectorate
Rose Court
2 Southwark Bridge
London, SE1 9HS

Tel: +44-20 7717 6000

Nuclear Safety Directorate

http://www.hse.gov.uk/nsd/nsdhome.htm

News Briefings

http://www.world-nuclear.org/nb/nbhome.htm

British Nuclear Energy Society

http://www.bnes.org.uk

British Nuclear Industrial Forum (UK)

http://www.bnif.co.uk/html/frame_set.htm

Nuclear Technologies, Ltd.

http://www.nuclear.co.uk

RadPro Limited (UK based professional consultancy)

http://www.radpro.co.uk

OTHER RESEARCH INSTITUTES

Daresbury Laboratory

http://srs.dl.ac.uk/index.htm

JET Joint Undertaking (European experiment in UK)

http://www.jet.uk

UKAEA Culham (UK)

http://www.fusion.org.uk

OTHER ORGAINZATIONS AND SITES

The British Library

http://www.bl.uk

JET Preprints and Reports (by IoP)

http://www.iop.org/Jet/welcome

Journal for Corrosion Science and Engineering
(UMIST, UK)

http://www.cp.umist.ac.uk/JCSE

New Journal of Physics (IoP and DPG)

http://www.njp.org

The Institute of Physics (electronic publications)

http://www.iop.org

The Atomic Data and Analysis Structure
ADAS (UK)

http://patiala.phys.strath.ac.uk/adas/adas.htm

University of Sheffield

http://www.shef.ac.uk

Friends of the Earth (Scotland)

http://www.foe-scotland.org.uk

Friends of the Earth (UK)

http://www.foe.co.uk

Programme for Promoting Nuclear Non-Proliferation
PPNN

http://www.soton.ac.uk/~ppnn

Verification Technology Information Centre (VERTIC)

http://www.vertic.org

World Energy Council (WEC)

http://www.worldenergy.org/wec-geis

The BP Statistical Review of World Energy

http://www.bp.com/worldenergy

Energy Group University of Reading

http://www.reading.ac.uk/AcaDepts/st/home/energygp

International Geothermal Association

http://iga.igg.cnr.it/index.php

Institute of Physics (Learned Society, UK)

http://www.iop.org/IOP

Business Research Group (BRG)

http://www.brg.co.uk

ICI Group

http://www.ici.com

The Constants and Equations Pages

http://tcaep.co.uk/index.htm

BBC Education Web Guide

http://www.bbc.co.uk/plsql/education/webguide/pkg_main.p_home

Conferences & Exhibitions by the Institute of Physics

http://www.iop.org/IOP/Confs

Conferences on Physics (PhysicsWeb)

http://www.physicsweb.org/events