2011年3月16日 星期三

前核電廠技師的瀝血控訴

設施配管1級技士平井憲夫(1997年1月因癌症逝世)

生前的最後吶喊。

我 不是反核運動家。這20年來,我一直在核電廠工作。社會上有聽不完的擁核反核理論,但我只想在這裡告訴大家:「所謂的核電廠是這樣一回事。」大部份的人都 不知道核電內部的實際情形。希望大家有耐心把這篇文章讀完。所謂核電,跟各位所想的或許有點出入。在那裡,每天都有遭受放射線污染的工人,以及嚴重的岐視 產生。

我的專長,是負責大型化學工場的內部配管施工與維修。快30歲時,日本掀起了一陣核電建設的風潮。核電內部有錯綜複雜的配管,正好是我發揮專長的大好舞台。因此我被核電製造商挖角,長期擔任工程現場的監督人員,一晃眼就過了20年。

「安全」是紙上談兵

1995 年1月發生阪神大地震。地震隔天我到了神戶,看到傾倒的新幹線與斷裂的高速公路。不禁發起一陣省思。因為這些公共建設實在與核電廠有太多相似點。大家或許 認為,核電、新幹線、高速公路這些攸關人命的建設,平日應該受到政府嚴格控管。但是看到倒下的高架支柱,不是混凝土裡夾雜著施工初期的定型木片,不然就是 焊接處焊的亂七八糟。為什麼會發生這些事呢?這不僅僅是施工單位的不用心,其實問題的本質,是我們都太過於注重「理論上的安全」了。

「素人造核電」

核電廠裡面,鐵絲掉進原子爐、工具掉進配管裡卡住的人為疏失可說是層出不窮。為什麼會這樣?因為工程現場裡「有真功夫的師父」實在是太少了。不管核電設計有多完美,實際施工卻無法做到與原設計一模一樣。核電的藍圖,總是以技術頂尖的工人為絕對前提,做出不容一絲差錯的完美設計。但卻從來沒有人討論過,我們的現場人員到底有沒有這種能耐。

早 期的工地,總是會叫經驗老道的老師父來做「班長」。他們比那些年輕的監督人員有經驗,並注重名譽,不允許錯誤發生在自己手上。但現在,老師父已幾近凋零。 建設公司在徵人廣告上以「經驗不拘」做為求才條件。這些沒經驗的素人,不知道核能事故的可怕,也不知道自己負責的部位有多重要。東京電力的福島核電,曾因鐵絲掉進原子爐,差點發生席捲世界的重大事故。把鐵絲弄掉的工人知道自己犯了錯,卻完全無法想像這個錯會造成如此可怕的事故。這就是現在核電現場的實際狀況。

老師父一個接一個退休了。建商也查覺到這件事。因此把工程圖盡量分割簡化,做出連菜鳥也看的懂的製造手冊。菜鳥們在現場有如堆積木般地組裝各種零件。他們不知道現在到底在作什麼,也不能理解這個部份有什麼重要性。這就是核電廠事故頻傳的原因之一。

核電廠因為有幅射的危險性,很難在現場培育人材。電廠的作業現場既暗又熱,又必須穿戴防護衣罩,作業員彼此無法直接做語言溝通,這該怎麼把技術傳給新人呢?更何況技術越好的師父,就代表他進入高汙染區的頻率越高。他們很快就會超過規定的放射能曝晒量,無法再進核電廠作業。所以菜鳥工才會越來越多。

再舉配管的焊接師父來說吧!專業的焊接工,通常年過三十後眼睛就會不堪使用,無法完成一些細膩的工作。所以需要許多細膩作業的石油廠就不會再雇用這些工人。這些人為了生計,只好去願意雇用他們的核電廠工作。

大家或許都會錯意了。以為核電廠是多麼高科技的先端產物。核電不像各位想的這麼高級。這些菜鳥做的核電廠,日後必會為我們帶來無窮的災難。

「徒有虛名的檢查官」

好, 或許有人會說就算核電真的都是素人蓋的,那好好監督它總行了吧。我想跟各位說明,監督系統才是核電更大的問題。真正的檢查,是檢查官指出有問題的部分說: 「你這裡焊接黏的不好,來,我來教你怎麼黏。」這樣才叫檢查。但檢查官通常都沒有真功夫。他們只會讀著整理完善的報告書,聽著建商的精彩報告,看著漂漂亮 亮的場地,表面沒什麼大問題就判定合格。這就是核電監督的真相。

以前在外演講時,曾經有一位技術官員在場告白: 「說來很慚愧。我們的部門害怕去核電檢查會遭幅射污染,所以從不派自己人去現場檢查。總是找些農業部的職員去監督。昨天在教人養蠶、養魚的人,隔天就被派 去當核電檢查官了。福井縣美濱核電廠的檢查總長,在上任之前是個負責檢查稻米的。」這些由素人發出運轉許可的核電,真的能信賴嗎?

東京 電力的福島核電廠發生緊急爐心冷卻系統(ECCS)的重大事故時,負責監督該座核電的檢查總長竟然透過隔天的報紙才知道這件事。這件事還被媒體以「核電重 大事故,檢查官被矇在鼓裡」為標題大肆報導。其實也不能怪電力公司。在十萬火急的事故現場,排除事故都來不及了,誰還有空去向一個什麼都不懂的三歲小孩說 明現在的狀況呢?所以他們不會把檢查官放進現場,所以官員永遠是狀況外。

檢查官不說OK,工程就無法進行。他們什 麼都不懂,只懂的看表面,卻又擁有太大權限。我還在職的時候,就一直呼籲政府必須組織一個完全獨立的第三者機關,找些有真功夫的配管或機械組裝的老師父來 當檢查官,他們一眼就能看穿哪裡有焊接不良或偷工減料。但是講了再講,政府的政策卻依然沒有改變。

「定期保養也是素人」

核能機組每運轉一年,就必須停機做定期保養。因為原子爐會產生高達150的氣壓,攝氏300度的蒸氣及熱水,這些熱水氣會使配管的管壁或汽門嚴重磨耗。因此必須定期更換。但這些作業卻使工人遭受幅射污染。

核電廠插入燃料棒後,只消運轉一次,內部就會充滿放射性物質。進入現場時,工人必須脫掉所有的衣物,換上防護衣才能進場。防護衣的作用並不是保護工人,而是確保放射線不被帶出核電廠。因為測量工人身體幅射劑量的儀器竟是佩戴在防護衣裡面,而不是外面!

包 圍在重重護具底下的工人們,必須在畏懼輻射污染的高度心理壓力下工作。在這種環境下絕對無法維持好的作業品質。就拿最最基本的鎖螺絲來講;我在作業前一定 會告誡工人:「鎖對角才會緊,輻射才不會外洩。」但是他們的工作場域是布滿輻射的高度危險區,進去以後不消幾分鐘,佩帶在身上的輻射測量儀就會發出高分貝 的響鈴,警告工人必須立刻退場。在進入現場前,我們雖會告知工人今天這個區域能待幾分鐘。但是現場並沒有時鐘,工人也因為輻射污染問題,無法自行攜帶手錶 進去。大家都想在警鈴響起前趕快離開。整個心就掛念著現在到底過了幾分鐘?警鈴是不是要響了?管他什麼螺絲要鎖對角,反正有鎖上去就好了。人在這種環境下絕對無法精確工作,但你想這會帶來什麼後果呢?

「放射能被直接排入大海」

核電的定期保養大都在冬季。保養結束後,幾十噸的放射性廢水會被直接排入大海。而在平常運轉時,也會有每分鐘數十噸單位的大量廢熱水被排進海洋。但政府或電力公司卻總是滿口保證核電絕對安全,久而久之國民也對核電造成的環境影響變的莫不關心。

工人穿過的防護衣必須用水清洗,這些廢水皆全數排入大海。排水口的放射線值高的不像話,而漁民卻在那附近養魚。如果我們不正視這個問題,放任核電廠越蓋越多的話,後果實在不堪設想。

「體內的幅射污染最可怕」

核島區內的所有東西都是放射性物質。每個物質都會釋放傷害人體的放射能,當然連灰塵也不例外。如果是身體表面沾上放射性物質,沖洗乾淨就沒事。但如果是經由口鼻吸入體內的話,將對人體帶來數倍的危險性。負責打掃核島區的清潔工,通常是最高危險群。

進入體內的放射性物質,通常在3至5天內會隨著汗水或小便排出身體。但這些物質在體內循環的過程會對人體帶來打擊;更何況它們並不會百分之百排出體外。長年累積下來的放射能將會帶來疾病。

有去參觀過核能設施的人,應該都看過核電內部打掃的一塵不染的情形。電力公司的職員總是得意的說:「核電廠既漂亮又乾淨!」這是理所當然的事情。放任灰塵飛散的話可是會擴大幅射污染呀!

我遭受了100次以上的體內幅射污染,最後得了癌症。我曾經畏懼即將到來的死亡。但我的母親鼓勵我,沒有比死更可怕的事情。因此我決定在死前站出來,把我知道的真相全部公諸於世。

「截然不同的作業環境」

放 射能無論有多微量,都會長期累積在人體。但所謂的放射線健康管理,卻規定一年的曝晒量不超過50mSv就好。這是一件相當可怕的事情。因為我們依據這個量 除以365天,算出一天可被曝晒的劑量。按照這個算法,核島區內的一些高污染區,一天只能進去5到7分鐘。但這麼短的時間根本無法完成工作。所以我們會要 求工人一口氣曝晒三個禮拜到一個月的量,以順利完成工作。我們根本沒料到這短短的十幾二十分,會為我們帶來白血病或癌症等疾病。電力公司完全不告訴我們這 些事情。

還記得有一次,運轉中的核電機組裡有一根螺絲鬆了。核電運轉中排出的輻射量相當驚人。為了鎖這根螺絲,我 們準備了三十個人。這三十人在離螺絲七公尺遠的地方一字排開,聽到「預備,跑!」的號令後輪番衝上去鎖,一到那裡只要數三下,計量器的警鈴就會嗶嗶響起。 時間實在太過緊迫,甚至有人衝上去後找不到扳手警鈴就響了。這個螺絲才鎖三轉,就已經花費了160人次的人力,400萬日幣的費用。或許有人會覺得奇怪,為什麼不把核電廠停起來修理?因為核電只要停一天就會帶來上億元的損失。電力公司才不會做這種虧本的事。在企業眼中,金錢比人命重要。

長達五小時的「絕對安全」教育

第 一次在核電廠上班的工人,必須接受約五小時的放射線管理課程。這個課程最大的目的就是解除內心的不安。他們絕不會說核電廠到底有多危險,只會一再強調有政 府嚴格管理,一切安心這些話。「社會上有一些反核份子很愛說輻射會帶來白血病或癌症等疾病,但那全部都是謊言,那些人都是騙子。你只要遵守政府的規定就不 會有問題。」諸如此類的洗腦教育將持續約五小時。

當然不只限於核電內部,電力公司也常在社區內推廣這種「核電絕對安全」的教育。他們有時邀請有名人來演講,有時透過料理教室等等的文化活動宣傳,有時是把圖文並茂的精美文宣夾報。久而久之人們慢慢就會被洗腦,變成只會擔心「沒了核電,我們將無電可用」。

這二十年來,我以現場負責人的身分,為新進員工執行這個更勝於奧姆真理教的洗腦教育。自己都不知道自己殺了多少人。核電工人總是對核電安全自信滿滿,就算身體狀況變差,也不認為與核電有關。因為他們從不知道放射能的真正恐怖。每個工人,每一天都持續遭受輻射污染。而負責人的任務就是隱瞞這些事情,不讓本人或外界知道這些資訊。

我長年從事這種工作,壓力日積月累,只能依賴酒精慰藉,而且每晚越喝越兇。我也常捫心自問,自己到底為了誰,為了什麼,每天要過這種充滿謊言的日子?一晃眼過了20年,終於連自己的身體也被輻射侵蝕的破碎不堪。

「核電廠出事時,誰要去救?」

有 一次,東京電力的福島核電廠內,有一名工人不慎割破額頭大量失血。因為情況危急,非馬上送醫不可。慌忙的電力公司職員立刻叫來救護車,卻忘記他剛從高污染 區出來,全身上下都是放射能,連防護衣都沒脫。趕來急救的醫護人員也缺乏知識,不做任何清洗就把病人直接送往醫院。結果所有接觸到他的醫生、護士都受到輻 射污染,連救護車、病床等東西也不例外。整個村落差點陷入大恐慌。

大家看到重傷病患時會下意識地去搶救,無色無臭無味的放射能容易被人忽略。光是一個人就搞的天翻地覆了。如果核電廠發生大事故,大批居民遭到輻射污染時,誰要去救他們?這絕不是別人家的事,而是全國國民必須共同思考的問題。

「令人震驚的美濱核電廠事故」

核 電事故往往被有意無意的忽略。大家都知道三浬島跟車諾比事件,卻不知道日本一直持續發生重大核安事故。其中我印象最深刻的,是1991年發生在關西電力美 濱核電廠的細管破碎事故。原子爐中含有放射性的冷卻水,因為細小的配管破碎而外洩到海裡,只差0.7秒,失去冷卻的原子爐就要像車諾比一樣暴衝了。幸好值 班的是個老經驗的職員,他當機立斷,手動開啟ECCS(緊急爐心冷卻裝置),避免了一場大慘劇。要知道,ECCS是核電廠的最後一道防線。使用ECCS系 統阻擋下來的美濱核電廠事故,可說是一台載著日本一億人口的大巴士,在高速公路以一百公里以上的速度狂奔,踩煞車也不靈,拉手煞車也擋不住,最後撞上懸崖 才總算把車子停下來的一場大事故。我只能說日本人,喔不,是世界上的人們太幸運了。

最後調查時才發現,原來是一組 零件在事故發生時未能及時插入機組,導致原子爐在高溫攀升的情形下沒有自動停機。這是施工上的失誤。但卻從來沒有人發現,這座已運轉二十年以上的機組擁有 這個致命缺失。這也代表當初建設時根本沒按照原設計施工。太長的就切掉,太短的就硬拉,這些設計師意料不到的事情,卻在工程現場理所當然的發生,也導致核 電事故層出不窮。

「文殊試驗爐的大事故」

使用全鈽的高速增 殖試驗爐─文殊(Monjyu),在1995年發生液態鈉外洩火災的重大事故。(譯註:高速增殖爐使用鈽做為核燃料。鈽為核分裂時產生之放射性物質,不存 在於自然界,具猛毒致癌性。其原子分裂時能產生巨大能量,故適用於製作核子彈。普通的核電廠已純水做冷卻液,但高速增殖爐卻必須使用危險性極高的液態鈉才 能達到冷卻效果。文殊爐在該事故發生後停擺了約15年。雖於2010年成功重啟試運轉。卻在稍後發生原子爐內上方的巨大零件脫落,直擊爐心的事故。因為爐 內已受高度輻射污染,取出該脫落零件可說是難上加難。爐心內部的損傷情形也無法掌握,該爐至今前途未卜。)

這不是該爐第一次發生事故。其實從施工期開始,就一直事故頻傳。因為所長跟現場監工、裡面的師父都是我以前的手下,發生什麼事情都會找我商量。我雖然已經辭職了,卻又害怕核電出事會造成無法彌補的慘劇,結果在施工時期前後跑了六趟文殊爐。

有 一次他們打電話來說:「有一根配管無論如何就是裝不下去,可不可以請你來看看。」一去後發現該配管完全符合原設計尺寸,周圍的零件也都安裝的好好的,卻怎 麼也裝不進去。後來想了一陣子才恍然大悟。文殊爐由日立、東芝、三菱、富士電機等廠商共同設計,而每家廠商的規格不同。打開設計圖後可以發現,日立的設計 圖把0.5mm以下的單位無條件捨去,而東芝和三菱卻是無條件進入,雖說是小小的0.5mm,幾百個地方加起來卻會變成相當大的誤差。這就是為什麼明明照 著圖面施工,卻怎麼也做不好的道理。最後沒辦法,只好叫他們全部重做。畢竟這座原子爐背負著日本國的威名,花點錢是必要的對吧?

這座拼裝式的原子爐,會發生事故可說是理所當然。反倒是沒出事的話還比較不可思議。但是政府卻一再淡化事故的嚴重性。甚至把一些事故稱為「現象」。有一次發生事故,電力公司在縣議會報告時,又不改陋習地說:「關於這次的現象…」,我氣的在台下對著縣議員大喊:「什麼現象?這個叫事故!事故!」在這種政府的領導之下,也難怪國民對核電的危機感越來越低。

「日本的鈽變成法國核武?」

尚無能力做核燃料再處理的日本把用畢核燃料送到法國處理,提煉出具高度危險性的鈽。預計在文殊爐使用的鈽為1.4噸,而長崎核爆的那顆原子彈卻僅含鈽8公斤。請各位想想,文殊的鈽能做多少顆原子彈?

大 部分的日本人都不知道,1995年,法國把這些來自日本的鈽挪用去南太平洋做核爆試驗。也有更多人不知道,再處理費用是法日兩國交易額的第二大項目。日本 身為世界上唯一一個遭受核爆侵襲的國家,口口聲聲高喊反對核武,卻允許自國的核廢料變成核武,為大溪地的人民帶來輻射災難。

美、英、德各國都早已因安全考量及經濟問題,中止所有的高速增殖爐研究計畫。其中德國更是把已經建設好的原子爐改建成遊樂園,為當地帶來新氣象。世界各國都認為鈽不能拿來發電,卻只有日本仍堅持繼續開發文殊爐。

為什麼日本要這麼固執?因為這個國家的政府缺乏中止一項錯誤政策的勇氣。就拿核能政策全體來說,日本在剛開始發展核電時就一直沒有前瞻性的計畫,到現在過了幾十年,連廢棄物要丟哪都還不知道。而年輕人也漸漸地不再願意學者核工技術,造成人材嚴重斷層。

曾 任原子力局長的島村武久,在退休後寫了一本名為「原子力講義」的書說:「日本政府的核能政策只不過是在自圓其說。其實根本沒有電力不足的問題。不敢明言拒 絕美國的日本一口氣蓋了太多核電廠,搞的自己手上屯積了一堆鈾跟鈽,不知該如何是好。世界各國都在懷疑日本是不是想搞核武。政府為了證明自己的清白,只有 不得不蓋更多核電廠來消費這些燙手山芋。」這就是日本這個國家真正的面孔。

「無法廢爐也無法拆除的核電廠」

日 本國內有許多老舊的核電廠,政府卻不知道處理方式,只能任由它們繼續運轉下去。原來充滿放射能的核電不是想關就能關,想拆就能拆。位於神奈川縣的武藏工業 大學裡面有一座100瓦的原子試驗爐。因為老舊不堪,造成輻射外漏而被停用。結果計算出來的修理費用是20億日幣,廢爐則要花上60億日幣,超過大學一整 年的預算。現在校方也只好把它放在那裡,等放射能衰退後才能著手整理了。

普通的商業原子爐大都高達100萬瓦。真是令人莫可奈何。

「『關閉』,監視、管理」

為 什麼原子爐無法輕易廢爐或拆除?因為核電機組內充滿大量的水蒸氣及冷卻水,如果停機後放著不管,水氣馬上會使機件生鏽,接著使金屬產生破洞,排放出放射 能。核電廠只要插入核燃料棒運轉過一次,整座核電廠就會變成一個大型放射性物體。廢爐、拆除,談何容易?就算是放機器人進去作業,它也會馬上因為放射能而 短路。

世界上有許多先進國家「關閉」國內核電廠。因為他們無法廢爐、拆除。只能「關閉」。所謂關閉核電廠,就是把發電機關掉,取出核燃料棒。但真正的重頭戲從這裡開始。

為了不讓機組內部的機件生鏽,造成輻射外洩。就算不再發電,也必須把水導入系統,維持機械運轉。當水壓造成配管磨損,或者零件毀損時也必須補修,以免輻射外漏。這些作業必須持續到核電內部的放射能完全衰退為止。

電力公司真的會完善管理這些毫無經濟效益的廢核電廠嗎?他們重來不思考老舊核電廠的處理方式,只會一昧計畫增設新的核電廠。我不得不說這個國家真是瘋狂。日本國內即將到達年限的核電機組有幾十座。會為這些核電的去向感到恐懼的,難道只有我嗎?

「無去無從的放射性廢棄物」

核 電廠運轉後,每天都會不斷地產生放射性廢棄物。這其中有所謂的低階核廢料,名稱雖為低階,但其中也有待在核廢桶旁五小時就有生命危險的劇毒物質。一開始電 力公司還把低階核廢料丟進海底。我在茨城縣東海核電廠上班時,那裡的業者就是把核廢料桶載上卡車,運到船上,最後丟進千葉外海。我常常想,這些鐵桶丟入海 裡後應該不到一年就會鏽蝕。裡面的核廢料不知道變怎樣了?附近的魚不知道會變怎樣?

現在,日本把低階核廢全部拿去青森縣的六所村核燃基地存放。政府預計在那裡埋300萬桶核廢料,管理300年。但是誰能預料300年後這些鐵桶會變怎樣?300年後管理這些廢棄物的業者還存在嗎?

另 外一種是高階核廢料,也就是用過的核燃料棒,經過再處理過程抽取出鈽之後剩餘的放射性廢棄物。這些高階核廢料(液態)必須與玻璃一起固化,並封閉在堅固的 金屬容器裡。人類只要站在容器旁兩分鐘就會死亡。接著必須冷卻這些持續散發高熱的核廢料30至50年。等溫度降低後再把它埋入幾百公尺深的地底,存放1萬 年以上!也難怪世界各國都找不到高階核廢的最終存放場。

至於核電廠本身,在停機後也將變為一龐大的放射性廢棄物。如果想把核電拆除,就等於將出現高達數萬噸的放射性廢材。我們連一般的產業廢棄物都不知道要丟哪裡了,這些核廢料到底該怎麼辦?

我在北海道演講時,曾提到核廢料必須管理50年,300年等等。那時有一個國中的小女生舉手發言:「你說什麼50年,300年這些話。結果做這些事的不是你們這些大人,全部都要我們,或是我們的孩子、孫子去做!我討厭這樣!」在場的大人,頓時啞口無言。

「身受輻射污染恐懼與歧視的居民」

「核電廠不會造成任何輻射污染」。這個謊言已經重複了幾十年。而如今,越來越多的證據讓核電集團無法再說謊下去。

核電廠的高聳排氣管,一天24個小時持續排出放射能氣體。周圍的居民每天都遭到輻射污染。

我 曾經收過一名23歲女性的來信。她說:「我離開鄉下去東京就職。後來遇到好對象,連婚都訂了。他卻忽然提說要分手。他說他很喜歡我,也很想跟我在一起。但 是他的父母告訴他,我是在福井縣敦賀那邊長大,那裡有很多核電廠,聽說住核電廠附近的人生小孩容易得白血病,他們怕自己的孫子也這樣,所以不准我們結婚。 我到底是做了什麼壞事,要受到這樣對待呢?

請你想想,如果有一天,你自己的孩子跟核電廠附近的居民談戀愛,你能衷心地祝福他們嗎?核電廠衍生出來的歧視就在我們週遭。擔心核電發生事故是一回事,就算不出事,這種歧視也會隨時蔓延在人們的意識裡。所以我厭惡核電,核能破壞的不只是環境,它連人的心也一起粉碎。」

最後我想說一件令我震驚許久的事情。這是我在北海道的泊核電廠附近的共和町演講時發生的事。今天講的話大家可以通通忘記,但請千萬記住接下來我要說的。

那一天的演講是在晚上舉辦,會場來了約三百人。有為人父母的,也有學校老師,連國中、高中生也來了。演講結束後我請聽眾發問,這時,有一個國二的女生邊流淚邊把手舉了起來:

「今天晚上聚集在這裡的大人們,全部都是裝著好人面孔的偽善者!我今天會來,就是要來看看你們這些大人到底長什麼嘴臉。特別是會來這種聚會的大人,你們平常最愛討論一些農藥問題、高爾夫球場問題、核電問題。說什麼一切都是為了孩子,說什麼你們努力在搞運動。

我住在核電廠附近的共和町,24小時都受到輻射污染。我看過書上寫,核電廠及英國的核燃料再處理工廠附近的小孩罹患白血病的機率很高。我是個女孩子,長大後想要結婚生小孩,你們說說,我以後生小孩沒問題嗎?」她邊哭邊說,在場的大人卻誰也答不出話。

「你們都說核電廠很可怕,那為什麼要等到核電廠都蓋好運轉了才在這邊告訴我們這些事?為什麼當初施工時不去拼命把它擋下來?現在泊電廠的二號機都已經開始運轉了,你們這些大人到底在幹什麼?就算沒電可用,我也討厭核能發電!」

「我真的不知道你們今天在這裡辦活動有什麼意義?如果我是大人,自己有小孩的話,我一定拼上這條命也要去把核電廠擋下來。」

「現在二號機也開始運轉了,我將遭到雙倍的輻射污染,但我不打算逃離自己的故鄉。」

這時我問:「妳有跟媽媽或老師講過妳的煩惱嗎?」她說:「我媽媽跟老師今天都在現場,但我沒跟她們講過。班上的女生都在談這個話題,我們都害怕自己將來結不了婚,生不了小孩。」

這個問題,絕不僅只發生在政府規定的核災應變範圍五公里、十公里內。離核電廠50公里、100公里遠的地方,有數不清的國高中生們都抱持著類似煩惱。希望各位能意識到這件事情。

「有核電就無法安心生活」

話說到這裡,各位應該對核電廠有了一個新的體認了是吧?

車諾比事故已經是過去的事情。「想要維持都會生活機能,保障能源穩定,雖然有點危險,但我們需要核電廠。」尤其是住在大城市的人,更容易接受這種想法。

但這種想法是國家及電力公司砸下大筆預算,努力推行「核電是核能的和平利用」「我們嚴格控管核電,絕對不會出事情!」「海島型國家缺乏資源,核能有絕對的必要性」等等洗腦教育的結果。事情的真相,永遠被隱瞞在檯面下。

在座的各位都知道,核電廠出事不得了。那是不是不出事就沒問題了呢?什麼是核能的和平利用?只要有像我這樣罹患癌症的核電工人存在;只要有遭到歧視的周邊居民存在,核電就永遠稱不上是和平利用。

再請各位想想那些需要看管上萬年的核廢料。管理核廢料也需要電力跟石油。到時能源的總使用量絕對超出核電所產生的能量。而且負責管理這些東西的不是我們,而是往後世世代代的子孫。這到底算哪門子的和平利用?

我想請求各位,每天一早起來,仔仔細細地端看自己的孩子或孫子的臉龐。再想想國家積極發展核電的政策到底有沒有問題?特別是位於地震帶的日本,不只核電廠事故,還必須提防大地震帶來的影響。再這樣下去,早晚會發生無可彌補的悲劇。

因此我堅決反對繼續蓋新的核電廠。而運轉中的核電廠,也必須確實地逐一關閉。

只要有核電存在,真正的和平就不可能降臨於世界。請把美麗的地球留給孩子們吧!

關於平井憲夫:

1997 年1月逝世。設施配管1級技士,核電事故調查國民會議顧問,核電勞工救濟中心代表,北陸電力志賀核電廠停止訴訟原告特別輔佐人,東北電力女川核電停止訴訟 原告特別輔佐人,福島二號核電廠三號機運轉停止訴訟原告證人。「核電勞工救濟中心代表」在他仙逝後,因後繼無人關閉。

2011年3月14日 星期一

Nuclear Power in China

  • Mainland China has 13 nuclear power reactors in operation, more than 25 under construction, and more about to start construction soon.
  • Additional reactors are planned, including some of the world's most advanced, to give more than a ten-fold increase in nuclear capacity to at least 80 GWe by 2020, 200 GWe by 2030, and 400 GWe by 2050.
  • China is rapidly becoming self-sufficient in reactor design and construction, as well as other aspects of the fuel cycle.

Most of mainland China's electricity is produced from fossil fuels (80% from coal, 2% from oil, 1% from gas in 2006) and hydropower (15%). Two large hydro projects are recent additions: Three Gorges of 18.2 GWe and Yellow River of 15.8 GWe. Rapid growth in demand has given rise to power shortages, and the reliance on fossil fuels has led to much air pollution. The economic loss due to pollution is put by the World Bank at almost 6% of GDP.1

Domestic electricity production in 2009 was 3643 billion kWh, 6.0% higher than the 3450 billion kWh in 2008, which was 5.8% more than in 2007 (3260 billion kWh) and it is expected to rise to 3810 billion kWh in 2010a. Installed generating capacity had grown by the end of 2010 to 962 GWe, up 10.1% on the previous year's 874 GWe, which was 10.2% above the 2008 figure of 793 GWe2. At the end of 2010, fossil fuelled capacity (mostly coal) reached 707 GWe, hydro capacity was 213 GWe (up 16.6 GWe in the year), nuclear capacity was 10.8 GWe and wind capacity reached 31 GWe. Meanwhile, investment in electricity dropped 8.5% to CNY 705 billion ($107 billion) for the year. Capacity growth is expected to slow, reaching about 1600 GWe in 2020.

These capacity increase figures are all the more remarkable considering the forced retirement of small inefficient coal-fired plants: 26 GWe of these was closed in 2009 and 11 GWe in 2010, making 71 GWe closed since 2006, cutting annual coal consumption by about 82 million tonnes and annual carbon dioxide emissions by some 165 million tonnes. China is well advanced in developing and deploying supercritical and ultra-supercritical coal plants, as well as moving quickly to design and deploy technologies for integrated (coal) gasification combined cycle (IGCC) plants.

The grid system run by the State Grid Corporation of China (SGCC) and China Southern Power Grid Co (CSG) is sophisticated and rapidly growing, utilising ultra high voltage (1000 kV AC and 800 kV DC) transmission. By 2020, the capacity of the UHV network is expected to be some 300 GW, which will function as the backbone of the whole system, having 400 GWe of clean energy sources connected, of which hydropower will account for 78 GW, and wind power from the north a further significant portion (wind capacity by 2020 is planned to be 100 GWe). Also by 2020, operational transmission losses are expected to be 5.7%, down from 6.6% in 2010. At the end of 2009, China had budgeted to spend $600 billion upgrading its grid.

Among the main listed generators, Huaneng Power produced 203.5 billion kWh from its domestic plants in 2009, 10.2% up on 2008. Datang Power produced 141.9 billion kWh, 12% up on 2008. Huadian Power produced 107.5 billion kWh, 6.75% above 2008. CPI Development produced 43.9 billion kWh, 2.0% above 2008 level.

While coal is the main energy source, most reserves are in the north or northwest and present an enormous logistical problem – nearly half the country's rail capacity is used in transporting coal. Because of the heavy reliance on old coal-fired plant, electricity generation accounts for much of the country's air pollution, which is a strong reason to increase nuclear share. China recently overtook the USA as the world's largest contributor to carbon dioxide emissions. The US Energy Information Administration predicts that China's share in global coal-related emissions will grow by 2.7% per year, from 4.9 billion tonnes in 2006 to 9.3 billion tonnes in 2030, some 52% of the projected world total. Total carbon dioxide emissions in China are projected to grow by 2.8% per year from 6.2 billion tonnes in 2006 to 11.7 billion tonnes in 2030 (or 28% of world total). In comparison, total US carbon dioxide emissions are projected to grow by 0.3% per year, from 5.9 billion tonnes in 2006 to 7.7 billion tonnes in 2030.3

Electricity generation is only one part of China's rapid development; roads, air transport and a 40,000 km high-speed rail system by 2015 are others.

Nuclear power

Nuclear power has an important role, especially in the coastal areas remote from the coalfields and where the economy is developing rapidly. Generally, nuclear plants can be built close to centres of demand, whereas suitable wind and hydro sites are remote from demand. Moves to build nuclear power commenced in 1970 and about 2005 the industry moved into a rapid development phase. Technology has been drawn from France, Canada and Russia, with local development based largely on the French element. The latest technology acquisition has been from the USA (via Westinghouse, owned by Japan's Toshiba) and France. The Westinghouse AP1000 is the main basis of technology development in the immediate future.

By around 2040, PWRs are expected to level off at 200 GWe and fast reactors progressively increase from 2020 to at least 200 GWe by 2050 and 1400 GWe by 2100.

Prior to 2008, the government had planned to increase nuclear generating capacity to 40 GWe by 2020 (out of a total 1000 GWe planned), with a further 18 GWe nuclear being under construction then. However, government targets for nuclear power have been increasing. As of June 2010, official installed nuclear capacity projections were 70-80 GWe by 2020, 200 GWe by 2030 and 400-500 GWe by 2050. China Daily in January 2011 quoted a senior official projecting 86 GWe target in 2020.

In September 2010, the China Daily reported that China National Nuclear Corporation (CNNC) alone plans to invest CNY 800 billion ($120 billion) into nuclear energy projects by 2020. Total investment in nuclear power plants, in which CNNC will hold controlling stakes, will reach CNY 500 billion ($75 billion) by 2015, resulting in 40 GWe on line, according to CNNC. In order to fund the company's expansion target, CNNC plans to list its subsidiary, CNNC Nuclear Power Co Ltd in 2011, to attract strategic investors.

Hong Kong gets much of its power from mainland China, in particular about 70% of the output from Daya Bay's 1888 MWe net nuclear capacity is sent there. The Hong Kong government plans to close down its coal-fired plants, and by 2020 to get 50% of its power from mainland nuclear, 40% from gas locally and 3% from renewables. Hong Kong utility China Light & Power has equity in CGNPC's Daya Bay and Yangjiang power plants, and may take equity in a further CGNPC nuclear plant.

In January 2011 a report from the State Council Research Office (SCRO), which makes independent policy recommendations to the State Council on strategic matters, was published. While approving the enormous progress made on many fronts, it cautioned concerning provincial and corporate enthusiasm for new nuclear power plants and said that the 2020 target should be restricted to 70 GWe of new plant actually operating so as to avoid placing undue demand on quality control issues in the supply chain. Another 30 GWe could be under construction. It emphasised that the priority needed to be resolutely on Generation-III technology, notably the AP1000 and derivatives. However, ambitious targets to deploy AP1000s with reduced foreign input had proved difficult, and as a result, more of the Generation-II CPR-1000 units are under construction or on order. Only China is building Gen-II units today in such large numbers, with 57 (53.14 GWe) on the books4.

SCRO said that reactors built today should operate for 50 or 60 years, meaning a large fleet of Gen-II units will still be in operation into the 2070s, when even Gen-III reactors would have given way to Generation-IV and perhaps even to commercial nuclear fusion. The country should be 'careful' concerning 'the volume of second generation units under construction... the scale should not be too large' to avoid any perception of being below international standards of safety in future, when most of the world's Gen-II reactors are retired. The SCRO noted the 100-fold increase in probabilistic safety brought by Gen-III, and that future generations would continue the trend.

Another factor potentially affecting safety is the nuclear power workforce. While staff can be technically trained in four to eight years, 'safety culture takes longer' at the operational level. This issue is magnified in the regulatory regime, where salaries are lower than in industry, and workforce numbers remain relatively low. SCRO said that most countries employ 30-40 regulatory staff per reactor in their fleet, but the National Nuclear Safety Administration (NNSA) has only 1000 staff - a figure that must more than quadruple by 2020. The SCRO recommended that 'The NNSA should be an entity directly under the State Council Bureau, making it an independent regulatory body with authority.' It is currently under the China Atomic Energy Authority which plans new capacity and approves feasibility studies for new plants, although it is understood to report to the State Council directly.

The report said that 32 further reactors 34.86 GWe had been approved by the state at end 2010, with 25 (27.73 GWe) then under construction.

The SCRO calculated that nuclear development would require new investment of some CNY 1 trillion ($151 billion) by 2020, not counting those units being built now. These projects rely mainly on debt, funds are tight, and 'investment risks cannot be discounted'. This cost figure could rise if supply chain issues impact schedules, with repercussions for companies borrowing to build and for the economics of the Chinese nuclear program overall. A major recommendation was to sort out bottlenecks in the supply chain for AP1000 reactors.

Nuclear power reactors in mainland China

Nuclear power reactors in mainland China

Reactor technology

China has set the following points as key elements of its nuclear energy policy:

  • PWRs will be the mainstream but not sole reactor type.
  • Nuclear fuel assemblies are fabricated and supplied indigenously.
  • Domestic manufacturing of plant and equipment will be maximised, with self-reliance in design and project management.
  • International cooperation is nevertheless encouraged.

The technology base for future reactors remains officially undefined, though two designs are currently predominant in construction plans: CPR-1000 and AP1000. Beyond them, high-temperature gas-cooled reactors and fast reactors appear to be the main priorities.

A major struggle between the established China National Nuclear Corporation (CNNC) pushing for indigenous technology and the small but well-connected State Nuclear Power Technology Corp (SNPTC) favouring imported technology was won by SNPTC about 2004. In particular, SNPTC proposes use of indigenized 1000+ MWe plants with advanced third-generation technology, arising from Westinghouse AP1000 designs at Sanmen and Haiyang (see section below on Embarking upon Generation III plants). Westinghouse has agreed to transfer technology to SNPTC over the first four AP1000 units so that SNPTC can build the following ones on its own.

In February 2006, the State Council announced that the large advanced PWR was one of two high priority projects for the next 15 years, depending on "Sino-foreign cooperation, in order to master international advanced technology on nuclear power and develop a Chinese third-generation large PWR".5 In September 2006, the head of the China Atomic Energy Authority said that he expected large numbers of third-generation PWR reactors derived from foreign technology to be built from about 2016, after experience is gained with the initial AP1000 units.

AP1000

The Westinghouse AP1000 is the main basis of China's move to Generation III technology, and involves a major technology transfer agreement. It is a 1250 MWe gross reactor with two coolant loops. The first four AP1000 reactors are being built at Sanmen and Haiyang, for CNNC and CPI respectively. At least eight more at four sites are firmly planned after them, and about 30 more are proposed to follow.

The reactors are built from modules fabricated adjacent to each site. The timeline is 50 months from first concrete to fuel loading, then six months to grid connection for the first four units, with this expected to reduce significantly for the following units. The cost of the first four is expected to be less than $2000/kW, with this reducing to $1600 for further units. In October 2009, SNPTC and CNNC signed an agreement to co-develop and refine the AP1000 design. (See also section below on Embarking upon Generation III plants).

EPR

Two Areva EPR reactors are being built at Taishan, and at least two more are planned (see section below on Embarking upon Generation III plants). Areva says the reactors are 4590 MWt, with net power 1660 MWe.

In October 2008, Areva and CGNPC announced establishment of an engineering joint venture as a technology transfer vehicle for development EPR and other PWR plants in China and later abroad. The JV will be held 55% by CGNPC and other Chinese interests, and 45% by Areva. It will engineer and procure equipment for both the EPR and the CPR-1000.

CAP1400

Westinghouse announced in 2008 that it was working with SNPTC and Shanghai Nuclear Engineering Research & Design Institute (SNERDI) to develop jointly a passively safe 1400 MWe design from the AP1000, for large-scale deployment. This development with SNERDI opens the possibility of China itself exporting the new larger units with Westinghouse's cooperation.

In December 2009, the State Nuclear Demonstration Company – a 55-45% joint venture company by SNPTC and China Huaneng Group – was set up to build and operate an initial unit of the larger design, the CAP1400, at Huaneng's Shidaowan site. The new company signed a set of agreements with SNERDI and the State Nuclear Power Engineering Company (SNPEC) in November 2010 to proceed with the project. Construction is scheduled to start in April 2013, and SNPTC hoped to have it operating in December 2017. Westinghouse is to provide technical consulting services to SNPTC for the design. It may be followed by a larger, 3-loop CAP2100 design if the passive cooling system can be scaled to that level. Agreements with Westinghouse stipulate that SNPTC will own the intellectual property rights for any derivatives over 1350 MWe. SNPEC is doing the engineering under a team from SNERDI, the Shandong Electric Power Engineering Consulting Institute (SEPECI), and the State Nuclear Power Equipment Manufacturing Company (SNPEMC), which will make the components.

CNP-1000 (also CNP-600, CNP-300)

CNNC had been working with Westinghouse and Framatome (now Areva) at SNERDI since the early 1990s to develop a Chinese standard three-loop PWR design, the CNP-1000. This is developed from the single-loop Qinshan CNP-300 unit (scaled up to the two-loop CNP-600 units, also at Qinshan), with high (60 GWd/t) burn-up, 18-month refueling cycle and 20 more fuel assemblies than the French-origin unitsb. In 1997, the Nuclear Power Institute of China (NPIC) at Chengdu became involved in the reactor design and, early in 2007, SNERDI was reassigned to concentrate on the AP1000 program. CNNC has been keen to create its own brand of advanced second-generation reactor with full intellectual property rights, and wanted to build two initial CNP-1000 plants at Fangjiashan, adjacent to Qinshan near Shanghai, under the 11th Economic Plan, though the design probably would not have been ready. In early 2007, the CNP-1000 development was put on hold indefinitely, though this aborted export plans for two CNP-1000 units to Pakistan.

Further CNP-600 units are being built at Qinshan and Changjiang, Hainan. CNNC says they are free of French intellectual property rights. CNNC is also developing the design to the ACP600 which it expects to be able to built on Hainan or in the northwest Gansu province about 2013c.

A new 300 MWe CNP-300 PWR unit is being built at Chasma in Pakistan by the China Zhongyuan Engineering Corporation. It is a twin to that already commissioned in 2000, and similar to Qinshan 1 – China's first indigenously-designed (by SNERDI) nuclear power plant.

CNNC is seeking to sell the CNP-300 to Belarus and in Africa.

CPR-1000

The CPR-1000 is a significantly upgraded version of the 900 MWe-class French three-loop technology imported for the Daya Bay nuclear power plant in the 1980s. Known as the 'improved Chinese PWR' and designated Generation II+, it features digital instrumentation and control and a design life of 60 years. Its 157 fuel assemblies have core melt frequency of 1x10-5 and a release probability an order of magnitude lower than this.

Standard construction time is 52 months, and the unit cost is under CNY 10,000 (US$ 1500) per kilowatt. With a capacity of 1080 MWe gross (1037 MWe net), Ling Ao Phase II is the first plant to be designated as the CPR-1000 design. The CPR-1000 is being widely and quickly deployed for domestic use.

China Guangdong Nuclear Power Corporation (CGNPC) led the development of the CPR-1000 and has established a nearly complete domestic supply chain. However, Areva retains intellectual property rights, which constrains overseas sales since the Chinese would need agreement from Areva on a case-by-case basis.

CGNPC refers to later units as CPR-1000+, incorporating design improvements which bring it close to Generation III standard. Of more significance is its evolution to the ACPR-1000 with full Chinese intellectual property rights and which CGNPC expects to make available for local build and overseas markets from 2013.

CGNPC Progressive Localisation of CPR-1000

VVER

Russia's Atomstroyexport was general contractor and equipment provider for the Tianwan AES-91 power plants using the V-428 version of the well-proven VVER-1000 reactor of 1060 MWe capacity. The reactors incorporate Finnish safety features and Siemens-Areva instrumentation and control systems. Russia's Energoatom is responsible for maintenance from 2009. Tianwan units 3 & 4 will use the same version of the VVER-1000 reactor, and if CNNC continues with Russian technology for units 5 & 6, they will probably use the VVER-1200.

Candu

In September 2005, Atomic Energy of Canada Ltd (AECL) signed a technology development agreement with CNNC which opened the possibility of it supplying further Candu-6 reactors. AECL built the two-unit Qinshan Phase III plant on schedule and under budget and estimates that it could be replicated for 25% lower cost. Any replication would be on the basis of involving local engineering teams, not on a turnkey basis, but the technology is now well understood and the decades-old Candu-6 design would likely pose fewer problems for technology transfer than state of the art third-generation designs from Westinghouse and Areva NP. (The later Korean Candu-6 plants at Wolsong had 75% local content.) However, the agreement with CNNC – more specifically with SNERDI – looked further forward to collaboration on AECL's new ACR design later. SNERDI is now focused on AP1000 engineering and reassigned to SNPTC, so early in 2008 work on Candu fuel technologies passed to another CNNC entity: the Nuclear Power Institute of China (NPIC).

HTR

In February 2006, the State Council announced that the small high-temperature gas-cooled reactor (HTR) was the second of two high priority projects for the next 15 years. The small HTR-PM units with pebble bed fuel were to be 200 MWe reactors, similar to that being developed in South Africa, but plans have evolved to make them twin 105 MWe reactors so that they can retain the same core configuration as the prototype HTR-10. The twin units will drive a single steam turbine. China Huaneng Group is the lead organization in the consortium to build the demonstration Shidaowan HTR-PM with China Nuclear Engineering & Construction Group (CNEC) and Tsinghua University's INET, which is the R&D leader. Chinergy Co., a joint venture of Tsinghua and CNEC, is the main contractor for the nuclear island. Thermal efficiency of 40%, localisation 75% and 50-month construction for the first unit is envisaged. The initial HTR-PM will pave the way for 18 (3x6) further 210 MWe units at the same site – total 3800 MWe (see Shidaowan project below, and Research and development section in page on China's Nuclear Fuel Cycle).

Fast neutron reactor

Longer-term, fast neutron reactors (FNRs) are seen as the main technology, and CNNC expects the FNR to become predominant by mid-century. A 65 MWt fast neutron reactor – the Chinese Experimental Fast Reactor (CEFR) – near Beijing achieved criticality in July 2010.6 Based on this, a 600 MWe pre-conceptual design was developed. The current plan is to develop an indigenous 1000 MWe design to begin construction in 2017, and commissioning 2022. This is known as the Chinese Demonstration Fast Reactor (CDFR) project 1.

In addition to CDFR project 1, in October 2009, an agreement with Russia confirmed earlier indications that China would opt for the BN-800 technology as CDFR project 2. The 880 MWe gross BN-800 reactor being built by OKBM Afrikantov at Beloyarsk in Siberia is the reference design and the first two in China are planned to start construction in 2013 at Sanming, Fujian province, with the first to be in operation in 2018 (see see section below on Sanming).

See also Fast neutron reactors section in page on China's Nuclear Fuel Cycle.

Embarking upon Generation III plants

In September 2004, the State Council approved plans for two units at Sanmen, followed by six units at Yangjiang (two to start with), these to be 1000 or 1500 MWe reactors pioneering Generation III nuclear technology from overseas. The Sanmen (in Zhejiang province) and Yangjiang (in Guangdong province) reactors were subject to an open bidding process for third-generation designs, with contracts to be awarded in mid-2006 – in the event, mid-2007 – putting them clearly into the 11th Five Year Plan.

Bidding process

This open bidding process underlined the extent to which China is making itself part of the world nuclear industry, and yet at first remaining somewhat ambivalent about that.

Three bids were received for the four Sanmen and Yangjiang reactors: from Westinghouse (AP1000 reactors), Areva (EPR) and Atomstroyexport (VVER-1000 model V-392). The State Nuclear Power Technology Corporation (SNPTC), directly under China's State Council, was in charge of technology selection for new plants being bid from overseas.

The USA, French and Russian governments were reported to be giving firm support as finance and support arrangements were put in place. The US Export-Import bank approved $5 billion in loan guarantees for the Westinghouse bid, and the French Coface company was expected similarly to finance Areva for its bid. The US Nuclear Regulatory Commission gave approval for Westinghouse to export equipment and engineering services as well as the initial fuel load and one replacement for the four units. Bids for both two-unit plants were received in Beijing on behalf of the two customers: China Guangdong Nuclear Power Co (CGNPC) for Yangjiang, and China National Nuclear Corporation (CNNC) for Sanmen. Bids were for the nuclear portion of each plant only, the turbine tenders to be called for subsequently.

Bids were assessed on level of technology, the degree to which it was proven, price, local content, and technology transfer - which apparently became the major factor. Areva and Westinghouse were short-listed. However, the decision on reactor type was delayed, and came under review at the highest political level, with CNNC evidently pushing for the use of indigenous second-generation designs for both sites.

In December 2006, 22 months after the bids were submitted and after several revisions to them, the Westinghouse AP1000 reactor design was selected for the four units – two each at Sanmen and Yangjiang. Early in 2007, the two units planned for the Yangjiang site were switched to Haiyang in the more northerly Shandong province, making way for two EPR units Areva was in negotiations to build at Yangjiang. Later in 2007, plans for the EPRs under consideration for Yangjiang were transferred to another Guangdong site – Taishan – since there was pressure to build a lot of capacity quickly at Yangjiang.

Sanmen 1&2 and Haiyang 1&2

A framework agreement was signed at the end of February 2007 between Westinghouse and SNPTC specifying Haiyang and Sanmen for the four AP1000 units. In July 2007, Westinghouse, along with consortium partner Shaw, signed the contracts with SNPTC, Sanmen Nuclear Power Company (51% owned by CNNC), Shangdong Nuclear Power Company (61% owned by CPI) and China National Technical Import & Export Corporation (CNTIC) for four AP1000 reactors. Specific terms were not disclosed but the figure of $5.3 billion for the first two was widely quoted.

Sanmen site works commenced in February 2008 and full construction on Sanmen 1 – the world's first AP1000 unit – officially commenced on 19 April 2009. The reactor is expected to begin operation in August 2013 with the second about one year later. First concrete at Haiyang 1 was in September 2009. The Haiyang units are expected to commence operation in 2014 and 2015.

AP1000 construction and equipment contracts

Westinghouse and Shaw Group have an engineering, procurement, commissioning and start-up as well as project management contract with SNPTC for the first four reactors (Sanmen & Haiyang). Also Shaw has a contract with State Nuclear Power Engineering Corp. Ltd, a SNPTC subsidiary, for technical support for the first two Dafan, Xianning units in Hubei province, including engineering and design management, project controls, quality assurance, construction management and project management.

In April 2007, Westinghouse signed a $350 million contract with Doosan Heavy Industries in Korea for two pressure vessels and four steam generators for Sanmen 1 and Haiyang 1. The pressure vessels for the other two units are being made by Chinese manufacturers: China First Heavy Industries (CFHI, also known as YiZhong) for Sanmen 2 and Shanghai Electric Group Corporation (SEC) for Haiyang 2. Steam generators for Sanmen 2 and Haiyang 2 were to be manufactured by Harbin Power Equipment Co., Ltd. (HPEC) and SEC, respectively, though a contract for Sanmen 2 steam generators was let to Spain's ENSA in 2011.

All four steam turbine generators are being manufactured by Mitsubishi Heavy Industries (MHI). In a $521 million deal, Sanmen Nuclear Power ordered two turbine generator packages from MHI at the end of September 2007, with Shandong Nuclear Power ordering another two early in 2008. MHI's Takasago Machinery Works is manufacturing the turbines, including rotors and blades. Mitsubishi Electric Corporation is supplying the generators and HPEC, partnering with MHI, is responsible for turbine casings, piping and associated facilities. The turbines will reportedly boost the capacity of the reactors from their designed 1175 MWe to 1250 MWe gross.

In November 2010, further contracts were signed between SNPTC and Westinghouse, including one for Westinghouse to provide SNPTC with technical consulting services in research and development of the CAP1400 nuclear power plant, to be developed by SNPTC with Chinese intellectual property rights. Westinghouse said that having shared design technology with SNERDI, it expected 100% localization by 2015.

In January 2011, a further agreement was signed with SNPTC to deploy further AP1000 units, and to extend the 2008 technology cooperation agreement for another two years. SNPTC said the deal also included measures "to develop cooperation in the field of overseas markets." Another agreement was signed with China Baotou Nuclear Fuel Co "to design, manufacture and install fuel fabrication equipment that will enable China to manufacture fuel" for AP1000 units. The latter $35 million contract involves supply and installation of US equipment at Baotou.

Taishan 1&2

In February 2007, EDF entered a cooperation agreement with CGNPC to build and operate a two-unit EPR power station at Yangjiang in Guangdong province. This deal was not expected to involve the technology transfer which is central to the Westinghouse contracts, since the EPR has multiple redundant safety systems rather than passive safety systems and is seen to be more complex and expensive, hence of less long-term interest to China. However, negotiations with Areva and EDF dragged on and in August 2007 it was announced that the EPR project had been shuffled to Taishan (in Guangdong) so that six CPR-1000 units previously planned for that site could be built at Yangjiang as soon as possible.

At a November 2007 ceremony attended by Chinese president Hu Jintao and French president Nicolas Sarkozy in Beijing's Great Hall of the People, Areva initialed an €8 billion contract with CGNPC for the two EPRs at Taishan plus supply of fuel to 2026 and other materials and services for them. The whole project, including fuel supply, totals €8 billion, of which the nuclear reactors themselves were reported to be about €3.5 billion. Steam turbine generators costing €300 million are included in the larger sum. The Guangdong Development Commission quotes the total investment in both units as CNY 49.85 billion ($7.3 billion). The joint venture partners will put up CNY 16.45 billion and the balance will be borrowed with guarantee from the Central Bank of France. French export credits for the project are reported as €1.7 billion ($2.4 billion), covering purchase of equipment such as pressure vessel and steam generators for unit 1 from French suppliers.

In August 2008, EDF and CGNPC signed the final agreements for the creation of Guangdong Taishan Nuclear Power Joint Venture Company Limited (TNPC). EDF will hold 30% of TNPC for a period of 50 years (the maximum period permitted for a joint venture in China), CGNPC 70%. TNPC will oversee the building, then own and operate the plant. EDF is paying €600 to 800 million over four years for this share, subject to approval by the National Development and Reform Commission (NDRC) and the Ministry of Commerce. (EDF is project manager and architect for the Flamanville 3 EPR project in France, and this initiative consolidates its change in corporate strategy outside France as expressed already in the UniStar joint venture set up in mid-2007 with Constellation in USA to build, own and operate a fleet of US-EPRs in North America.)

CGNPC subsidiary China Nuclear Power Engineering Co. and Areva also set up an engineering joint venture Wecan, in December 2009. This is 55% CGNPC and 45% Areva, is based in Shenzen, and builds on Areva's European experience

CGNPC authorised construction in July 2008 and first concrete was poured on 28 October 2009, though the official inauguration ceremony was not until 21 December. Construction on the second unit started in April 2010. The first unit should be completed at the end of 2013 and the second in 2015. The major components for unit 1 are imported: the pressure vessel from Mitsubishi Heavy Industries (MHI) in Japan and the steam generators from Areva Chalon/St. Marcel in France, but those for unit 2 are all built in China: the pressure vessel by Dongfang Electric (DEC), the steam generators by DEC (two) and Shanghai Electric (two). The Arabelle steam turbines and 1750 MWe generators are being purchased separately from Alstom and Dongfang Electric Co.

Nuclear growth

In 2007, nuclear power plants provided 62.86 billion kWh – 2.3% of total – and there is now 8.6 GWe (net) installed. The first two nuclear power plants in mainland China were at Daya Bay near Hong Kong and Qinshan, south of Shanghai, with construction starting in the mid-1980s.

China's concerted nuclear expansion began with the National Development and Reform Commission's (NDRC's) Tenth Economic Plan for the years 2001-2005. (China's first economic plan was in 1953 and began China's centrally planned industrialization under Mao Zedong.) The Eleventh Economic Plan for the years 2006-2010 set even more ambitious goals than the Tenth for new nuclear plant construction, and marked a watershed in China's commitment to third-generation reactors, such as the Sanmen plant in Zhejiang province and Haiyang plant in Shandong province (see section above on Reactor technology).

The Tenth Five-Year Plan (2001-05) incorporated the construction of eight nuclear reactors, though the timeline for contracts was extended, putting the last two projects into the 11th plan. The four units in the Tenth Plan were: Ling Ao Phase II (also known as Ling Dong) in Guangdong province – the first CPR-1000 plant and based on the Daya Bay and Ling Ao Phase I nuclear plants; and Qinshan Phase II, in Zhejiang province – duplicating the indigenous CNP-600 units 1&2. The following slipped to the Eleventh Plan: Sanmen in Zhejiang province, using advanced foreign technology and design; and Yangjiang in Guangdong province, 500 km west of Hong Kong, originally intended to use advanced foreign technology.

The 11th Five Year Plan (2006-10) had firmer environmental goals than previously, including reduction of 20% in the amount of energy required per unit of GDP, i.e. 4% reduction per year. As well as the Sanmen and Yangjiang projects slipped from the Tenth Plan, nuclear power developments originally proposed in the Eleventh Plan included reactors at Hongyanhe (4), Haiyang (2), Fuqing (2) and Taishan (2), all of which are now under construction. Two at Lufeng and two at Hongshiding are delayed.

In 2007, it was announced that three state-owned corporations had been approved by NNSA to own and operate nuclear power plants: CNNC, CGNPC and China Power Investment Corporation (CPI). Any other public or private companies are to have minority shares in new projects, which is proving a severe constraint on the ambitions of the country's main power utilities (including Huaneng, Huadian, Datang and Guodian), all of which have set up nuclear subsidiaries or become involved in nuclear projects. CGNPC is increasingly preeminent in actual nuclear power plants.

The 12th Five-Year Plan (2011-15) includes construction start on phase II of Tianwan, Hongyanhe, Sanmen and Haiyang, as well as phase I of inland sites: Taohuajiang, Xianning, and Pengze (2 reactors each except Taohuajiang: 4). By the end of the 12th Five Year Plan some 25 GWe is planned to be operational, and 45 GWe by the end of the 13th Five Year Plan.

CGNPC Nuclear Projects

More than 16 provinces, regions and municipalities have announced intentions to build nuclear power plants in the 12th Five Year Plan 2011-15. These include Henan and Sichuan, as well as those listed in the Further nuclear power units proposed Table below – most of which have preliminary project approval by the central government but are not necessarily scheduled for construction. Provinces put together firm proposals with reactor vendors by 2008 and submitted them to the central government's National Development and Reform Commission (NDRC) for approval during 2009. NRDC consideration is via the new National Energy Administration (NEA). A great many proposals were received, many of which will be deferred to the 13th Plan.

In its 2007 Annual Report, CPI said that at the end of the 12th Five Year Plan it expected to have 100 GWe of controllable installed capacity including three nuclear power bases: Liaoning, Shandong and inland.7

The complex ownership structure of Chinese nuclear plants is described in Appendix 1: Government Structure and Ownership, and China's considerable heavy engineering and manufacturing capacity is detailed in the information page on Heavy Manufacturing of Power Plants.

Operating nuclear plants

Operating nuclear reactors

Units Province Net capacity (each) Type Operator Commercial operation
Daya Bay 1&2
Guangdong
944 MWe
PWR
CGNPC
1994
Qinshan Phase I
Zhejiang
279 MWe
PWR (CNP-300)
CNNC
April 1994
Qinshan Phase II, 1-3
Zhejiang
610 MWe
PWR (CNP-600)
CNNC
2002, 2004, 2010
Qinshan Phase III, 1&2 Zhejiang 665 MWe PHWR (Candu 6) CNNC 2002, 2003
Ling Ao Phase I, 1&2 Guangdong 935 MWe PWR CGNPC 2002, 2003
Tianwan 1&2 Jiangsu 1000 MWe PWR (VVER-1000) CNNC 2007, 2007
Ling Ao Phase II, 1 Guangdong 1037 MWe PWR (CPR-1000) CGNPC Sept 2010
Total: 13 10,234 MWe

Daya Bay, Ling Ao Phase I

The Daya Bay reactors in Guangdong province are standard 3-loop French PWR units supplied by Framatome, with GEC-Alstom turbines. Electricite de France (EDF) managed construction, starting August 1987, with the participation of Chinese engineers. Commercial operation of the two units was in February and May 1994. There were long outages in 1994-96 when Framatome had to replace major components. Reactor vessel heads were replaced in 2004. The plant produces about 13 billion kWh per year, with 70% transmitted to Hong Kong and 30% to Guangdong.

The Ling Ao Phase I reactors are virtually replicas of adjacent Daya Bay. Construction started in May 1997 and Ling Ao 1 started up in February 2002 entering commercial operation in May. Ling Ao 2 was connected to the grid about September 2002 and entered commercial operation in January 2003. The two Ling Ao reactors use French technology supplied by Framatome, but with 30% localisation. They are reported to have cost $1800 per kilowatt.

Daya Bay and Ling Ao together comprise the 'Daya Bay nuclear power base' under the common management of Daya Bay Nuclear Power Operations & Management Co (DNMC), part of China Guangdong Nuclear Power Group (CGNPC). Framatome is now Areva NP. For Ling Ao Phase II, see below.

Qinshan

Qinshan 1 in Zhejiang province 100 km southwest of Shanghai, is China's first indigenously-designed and constructed nuclear power plant (though with the pressure vessel supplied by Mitsubishi, Japan). Design of the 300 MWe PWR was by the Shanghai Nuclear Engineering Research & Design Institute (SNERDI). Construction work spanned 6.5 years from March 1985, with first grid connection in December 1991. It was shut down for 14 months for major repairs from mid-1998.

In October 2007, Qinshan 1 was shut down for a major upgrade. The entire instrumentation and control system was replaced, along with the reactor pressure vessel head and control rod drives. Areva NP supervised the work, which is likely to lead to life extension beyond the original 30 years.

Qinshan Phase II units 1&2 are locally-designed and constructed 2-loop PWR reactors, scaled up from Qinshan 1, and designated CNP-600. Local content was 55%. Unit 1 started up at the end of 2001 and entered commercial operation in April 2002. Unit 2 started up in March 2004, with commercial operation in May 2004. Units 3 & 4 are similar, with local content of 77%. After 53 months construction, unit 3 was grid connected on 1 August 2010, and entered commercial operation 12 weeks later8.

In 2004, CNNC announced that the next two Qinshan units would be 1000 MWe indigenous units (i.e.CNP-1000 units, now seen as very unlikely or much delayed, and in effect Fangjiashan, adjacent to Qinshan 1, takes over this role).

Qinshan Phase III units 1&2 use the Candu 6 pressurised heavy water reactor (PHWR) technology, with Atomic Energy of Canada (AECL) being the main contractor of the project on a turnkey basis. Construction began in 1997 and unit 1 started up in September 2002 and unit 2 in April 2003. They are each about 665 MWe net.

Tianwan

Tianwan Phase I at at Lianyungang city in Jiangsu province is a Russian AES-91 power plant (with two 1060 MWe VVER reactors) constructed under a cooperation agreement between China and Russia - the largest such project ever. The cost is reported to be $3.2 billion, with China contributing $1.8 billion of this. Completion was delayed due to corrosion in the steam generators which resulted in some tubes having to be plugged with a net loss of capacity of about 2%. The first unit was grid connected in May 2006 and put into commercial operation in June 2007. The second was grid connected in May 2007, with commercial operation in August 2007. Design life is 40 years.

Nuclear plants under construction and planned

China Guangdong Nuclear Power (CGNPC) expected to spend $ 9.5 billion on its Ling Ao Phase II, Yangjiang and Taishan nuclear power plants by 2010 and to have 6000 MWe on line by then, with 12,000 MWe under construction. Work is under way at all these sites and others. It also planned to start on the Lufeng plant in Guangdong and Wuhu in Anhui province, but awaited NDRC approval. It is expecting to have 34,000 MWe nuclear capacity on line by 2020, providing 20% of the province's power, and 16,000 MWe under construction then. From 2010 it expects to commission three units per year and, from 2015, four units per year. CGNPC is also, due to State Council policy, committed to developing significant wind capacity through CGN Wind Co. It projects a total of 500 MWe by 2020.

China Guangdong Nuclear Power Group Plans to 2020

In 2006, China National Nuclear Corporation (CNNC) signed agreements in Liaoning, Hebei, Shandong and Hunan provinces and six cities in Hunan, Anhui and Guangdong provinces to develop nuclear projects. CNNC has pointed out that there is room for 30 GWe of further capacity by 2020 in coastal areas and maybe more inland such as Hunan "where conditions permit". In October 2007, CNNC's list of projects included Chuanshan (Jiangsu province), Jiyang (Anhui), Hebao Island (Guangdong), Shizu (Chongqing), Xudabao (Liaoning) and Qiaofushan (Hebei) amongst others.

CNNC said in December 2006 that it planned to build four 1000 MWe units at Heyuan, inland in northeast Guangdong, at a cost of US$ 6.4 billion, but no timing was mentioned.

In mid-2009, Huaneng Nuclear Power Development Co – a subsidiary of China Huaneng Group (CHNG) – said it had opened an office in the city of Yingtan in China's inland Jiangxi province for the development of a new nuclear power plant in the area. This is one of five sites for nuclear plants after Rongcheng which CHNG was reported in May to have selected: Cangnan in Zhejiang province, Huaining in Anhui, Xuyi in Jiangsu, and Xiapu in Fujian being the others.

In November 2007, the NDRC said that the government had budgeted CNY 450 billion ($65 billion) to build nuclear power capacity by 2020. It had selected 13 coastal sites to accommodate 59.46 GWe.

In December 2009, CGNPC is reported to have signed a CNY 5.3 billion ($776 million) nuclear island installation contract with China Nuclear Power Engineering Group Co (CNPEC), apparently covering Ningde 3&4 in Fujian, Yangjiang 3&4 in Guangdong, Fangchenggang 1&2 in Guangxi, and Taishan 1&2 in Guangdong. This is the largest contract of its kind in China.

Nuclear reactors under construction and planned

Plant Province MWe gross Reactor model Project control Construction start Operation
Ling Ao Phase II
unit 2
Guangdong 1080 CPR-1000 CGNPC 5/06 8/11
Qinshan Phase II
unit 4
Zhejiang 650 CNP-600 CNNC 1/07 2012
Hongyanhe
units 1-4
Liaoning 4x1080 CPR-1000 CGNPC 8/07, 4/08, 3/09, 8/09 10/12, 2013, 2014
Ningde
units 1-4
Fujian 4x1080 CPR-1000 CGNPC, with Datang 2/08, 11/08, 1/10, 9/10 12/12, 2013, 2014, 2015
Fuqing
units 1&2
Fujian 2x1080 CPR-1000 CNNC 11/08, 6/09 10/13, 8/14
Yangjiang
units 1-4
Guangdong 4x1080 CPR-1000 CGNPC 12/08, 8/09, 11/10, 15/3/11 8/13, 2014, 2015, 2016
Fangjiashan
units 1&2
Zhejiang 2x1080 CPR-1000 CNNC 12/08, 7/09 12/13, 10/14
Sanmen
units 1&2
Zhejiang 2x1250 AP1000 CNNC 3/09, 12/09 11/13, 9/14
Haiyang
units 1&2
Shandong 2x1250 AP1000 CPI 9/09, 6/10 5/14, 3/15
Taishan
units 1&2
Guangdong 2x1770 EPR CGNPC 10/09, 4/10 12/13, 11/14
Hongyanhe
units 5&6
Liaoning 2x1080 CPR-1000 CGNPC 2011, 2011 2015
Shandong Shidaowan Shandong 210 HTR-PM Huaneng 3/11 2015
Fangchenggang
units 1&2
Guangxi 2x1080 CPR-1000 CGNPC 7/10, 2011 2015, 2016
Fuqing
units 3&4
Fujian 4x1080 CPR-1000 CNNC 7/10, 2011 7/15, 5/16
Fuqing
units 5&6
Fujian 2x1080 CPR-1000
or CNP1000
CNNC ?, ? -
Changjiang
units 1&2
Hainan 2x650 CNP-600 CNNC & Huaneng 4/10, 11/10 2014, 2015
Hongshiding (Rushan)
units 1&2
Shandong 2x1080 CPR-1000 CNEC/CNNC Deferred from 2009? 2015
Ningde
units 5&6
Fujian 2x1080 CPR-1000 CGNPC
Xianning (Dafan)
units 1&2
Hubei 2x1250 AP1000 CGNPC 2011 or 2015 2015?
Taohuajiang
units 1-4
Hunan 4x1250 AP1000 CNNC 2011 or 2015 4/2015-2018?
Pengze
units 1&2
Jiangxi 2x1250 AP1000 CPI 2011 or 2015 2015?
Xudabao / Xudapu
units 1&2
Liaoning 2x1250 AP1000 CNNC with Datang 9/11, ?
Sanmen
units 3&4
Zhejiang 2x1250 AP1000 CNNC
Haiyang
units 3&4
Shandong 2x1250 AP1000 CPI 2010?
Xiaomoshan
units 1&2
Hunan 2x1250 AP1000 CPI 2011?
Longyou (Zhexi)
units 1&2
Zhejiang 2x1250 AP1000 CNNC 2011?
Sanming
units 1&2
Fujian 2x880 BN-800 CNNC 8/2011 2018, 19
Zhangzhou
units 1&2
Fujian 2x1250 AP1000 CNNC & Guodian 2011
Yanjiashan/Wanan/Ji'an Jiangxi 2x1250 AP1000 CNNC 2011?
Shaoguan
units 1-4
Guangdong (inland) 4x1250 AP1000 CGNPC 2013
Tianwan
units 3&4
Jiangsu 2x1060 VVER-1000
(AES-91)
CNNC 12/12, 8/13
Tianwan
units 5&6
Jiangsu 2x1200 VVER-1200 or CPR-1000 CNNC ?, ?
Wuhu
units 1&2
Anhui 2x1250 AP1000 CGNPC 12/2011 8/2016
Lianyungang
units 1&2
Jiangsu 2x1080 CPR-1000 CGNPC
Shanwei (Lufeng)
units 1&2
Guangdong 2x1080 CPR-1000 CGNPC by 2015?
33x1080
32x1250
2x1060
2x1200
2x1770
2x880
3x650
1x210
Total: 77 87,620 MWe

Where construction has started, the dates are marked in bold. Those here not under construction are marked as 'planned' in the WNA reactor table. At 31 December 2010, 27 under construction: 29,790 MWe; 50 planned: 57,830 MWe (gross).
Fangjiashan is sometimes shown as a development of Qinshan Phase I.

Further nuclear power units proposed

Plant Province MWe gross Expected model Project control Construction Start up
Lianyungang
units 3&4
Jiangsu 2x1080 CPR-1000 CGNPC
Taishan
units 3&4
Guangdong 2x1770 EPR CGNPC by 2015
Nanchong (Nanchun, Sanba) Sichuan 4x1080 CPR-1000? CGNPC
Tianwan
units 7&8
Jiangsu 2x1200 VVER-1200
(AES-2006)
CNNC
Yangjiang
units 5&6
Guangdong 2x1080 CPR-1000 CGNPC 2017
Xianning (Dafan)
units 3&4
Hubei 2x1250 AP1000 CGNPC
Shidaowan
units 1-4
Shandong 4x1250 AP1000 Huaneng 2013?
Shidaowan
units 5&6
Shandong 2x1400 CAP1400 Huaneng 2013?
Shandong Shidaowan Shandong 18x210 HTR-PM Huaneng
Changjiang
units 3 & 4
Hainan 2x650 CNP-600 or
ACP-600
CNNC & Huaneng
Haiyang
units 5&6
Shandong 2x1250 AP1000 CPI
Xiaomoshan
units 3-6
Hunan 4x1250 AP1000 CPI
Xudabao / Xudapu
units 3-6
Liaoning 4x1250 AP1000 CNNC with Datang
Shanwei (Lufeng)
units 3-6
Guangdong 4x1080 CPR-1000 CGNPC
Fangchenggang
units 3-6
Guangxi 4x1080 CPR-1000 CGNPC
Yingtan Jiangxi 2? Huaneng
Nanyang
units 1-6
Henan 6x1250? AP1000 (if CPI) CNNC or CPI
Xinyang
units 1-4
Henan 4x1080 CPR-1000? CGNPC?
Changde (Chenzhou, Hengyang) Hunan 4x1000? CNNC & Guodian?, CGNPC
Subtotal: 74 units 68,000+ MWe
Jiyang Anhui 4x? CNNC
Sanmen
units 5&6
Zhejiang 2x1250 AP1000 CNNC
Cangnan Zheijiang 6x1000 CGNPC/Huaneng
Zhexi /Longyou
units 3&4
Zhejiang 2x1250 AP1000 CNNC
Haijia /Haifeng
units 1&2
Guangdong 2x1000? CGNPC
Jinzhouwan
units 1&2
Liaoning 2x1000
Fuling
units 1-4
Chongqing 4x1250 AP1000 CPI
Jingyu
units 1-4
Jilin 4x1250 AP1000 CPI & Guodian 2013?
Wuhu
units 3-4
Anhui 2x1250 AP1000 CGNPC
Pengze
units 3&4
Jiangxi 2x1100 AP1000 CPI
Heyuan /Jieyang
units 1-4
Guangdong 4x1000 CNNC?
Haiyang
units 7&8
Shandong 2x1250 AP1000 CPI
Pingnan/Baisha
units 1-4
Guangxi 4x1250 AP1000 CPI
Hengren
units 1-4
Liaoning 4x1250 AP1000 CPI
Lanzhou Gansu 2? CNNC
Xiangtan Hunan 4x1250 AP1000 Huadian
Donggang Liaoning 4x1000 Huadian
Shizu Chongqing CNNC
Qiaofushan Hebai CNNC
Songzi/Xianning 5&6 Hubei AP1000 CGNPC
Guangshui Hubei 4x1250 AP1000 CGNPC
Hebaodao Guangdong CNNC
Yibin Sichuan CNNC
Sanming 3&4 Fujian 2x880? BN-800? CNNC 2015
Site to be decided Heilongjiang 4x1000 Huaneng
Subtotal: about 72 units 32x1250
20x1000
2x880
c.18x210
Approx. 80,000 MWe
Total: about 140 138,000+ MWe

All PWR except Shidaowan HTR-PM and Sanming BN-800. Some of these entries are based on sketchy information. For WNA reactor table, 80% of numbers and capacity from this table are listed as 'Proposed'

Ling Ao Phase II

While the bidding process for the delayed Generation III plants from overseas vendors was in train over more than two years (see section above on Embarking upon Generation III plants), the Guangdong Nuclear Power Group (CGNPC) signed contracts with Chinese designers and manufacturers for two CPR-1000 reactors as Phase II of the Ling Ao power station (also known as Ling Dong). Construction started in December 2005 with the 1080 MWe (gross), 1037 MWe (net) units. Unit 1 is about 50% localized and unit 2 will be 70% localized, under the project management of China Nuclear Power Engineering Corporation (CNPEC), part of CGNPC. Low-speed Arabelle turbine-generator sets are being provided by Alstom. In June 2009, the first Chinese-made reactor pressure vessel for a 1000 MWe class reactor was delivered for unit 2, from Dongfang (Guangzhou) Heavy Machinery Co. Unit 1 started up in June 2010 with grid connection in mid-July, 54 months after construction start, and entered commercial operation in September. Unit 2 is expected to commence operation in 2011.

Qinshan Phase II-3&4

Construction of the second stage of Qinshan Phase II was formally inaugurated at the end of April 2006, though first concrete had been poured for unit 3 in March. That for unit 4 was poured in January 2007. Local content of the two 650 MWe CNP-600 reactors will be more than 70% and scheduled construction time is 60 months.

Hongyanhe

This is the first nuclear power station receiving central government approval to build four units at the same time, and the first in northeast China. Construction of the first unit of the Hongyanhe nuclear power plant in Dalian, Liaoning, started in August 2007. It is the first nuclear power project in the 11th Five-Year Plan, with owner and operator being Liaoning Hongyanhe Nuclear Power Co, a joint venture of CGNPC and CPI (45% each) with Dalian Construction Investment Group. The National Nuclear Safety Administration (NNSA) issued a construction licence for units 3 & 4 in March 2009, and first concrete for unit 3 was poured soon afterwards. The cost of all four 1080 MWe CPR-1000 units in the first construction phase is put at CNY 50 billion (US$ 6.6 billion). China Nuclear Power Engineering Corporation (CNPEC), part of CGNPC, is managing the project. Shanghai Electric won a $260 million contract for equipment and Alstom is to provide the four low-speed Arabelle turbine-generator sets for $184 million. Localisation is above 70%. Commercial operation is planned for 2012-14. The project incorporates a 10,080 m3/day desalination plant.

In May 2010, the NRDC approved preliminary work on the CNY 25 billion two-unit second phase of the plant (units 5&6), and work began in July. The National Nuclear Safety Administration (NNSA) and the Environment Ministry approved the project in September 2010, construction start is expected 2011. Localisation is to be above 80% and the first unit is expected on line in 2015.

Ningde

Construction of CGNPC's six-unit Ningde nuclear power plant commenced in 2008. This is on three islands in Fuding city in northeast of Fujian province, and the first construction phase comprises four CPR-1000 units. The project was approved by the National Development & Reform Commission (NDRC) in September 2006, and local content will be about 75% for units 1&2 and 85% for units 3&4. Construction of the first unit started in February 2008, and CGNPC expects commercial operation of it after 58 months, in December 2012, with the others following to 2015. First concrete for the second unit was in November 2008, for the third early in January 2010 and for the fourth at the end of September 2010. Total cost for four units was put at CNY 51 billion ($7.2 billion). Dongfang Electric has a contract to supply turbine generators for units 1-4, using Alstom Arabelle low-speed technology. No dates yet known for units 5 & 6.

Fuqing

Construction of the six-unit Fuqing nuclear power plant 170 km south of Ningde also commenced in 2008 at Qianxe, Fuqing city in Fujian, near Fuzhou. The Fujian Fuqing Nuclear Co Ltd was set up in May 2006 with 49% held by China Huadian Corp. CNNC is responsible for the project which is using CGNPC's CPR-1000 reactors since alternatives are not licensed. First concrete for unit 1 was poured in November 2008, for unit 2 in June 2009, and for unit 3 in December 2010. Commercial operation is expected over 2013 to 2016. Site works are under way for further units there, total expected cost for all six being CNY 100 billion ($14.6 billion).

Construction of the project is by China Nuclear Power Engineering Co. (CNPE) and the reactor pressure vessels will be supplied by China First Heavy Industries, as for Fangjiashan. In June 2008, Dongfang Electric Group announced a CNY 5 billion ($725 million) contract for Alstom Arabelle low-speed steam turbine generators for the Fuqing and Fangjiashan plants. Late in 2010, CNNC was proposing the CNP1000 for units 5 & 6, noting "pre-project under way".

Yangjiang

Yangjiang city in western Guangdong province had originally been earmarked for the country's first Generation III plants (see section above on Embarking upon Generation III plants). After plans changed in the light of pressing generation needs in the region, Yangjiang will be the second nuclear power base of the China Guangdong Nuclear Power Group (CGNPC). Development of all six units of the Yangjiang plant was approved in 2004, with CPR-1000 later confirmed as technology for it. Construction of the first of two units started in December 2008, for commercial operation in 2013. Construction on the first unit of the second pair started in November 2010, then the final two (as the second construction phase) are to follow, with the last being built by 2017. Total cost is put at CNY 70 billion ($10.1 billion).

Yangjiang 1-6 and a further 14 units, along with the six units at Daya Bay/Ling Ao, will be operated under regional Daya Bay (DNMC) management. In July 2010, Hong Kong-based power utility China Light and Power (CLP) agreed to take a 17% stake in Yangjiang – the equivalent of one reactor.

Fangjiashan

Construction of CNNC's Fangjiashan plant started at the end of December 2008. It is close to the Qinshan plant in Zhejiang province and essentially an extension of it, using two CPR-1000 reactors. Construction of the CNY 26 billion ($3.8 billion) project is by China Nuclear Power Engineering Co. (CNPE) and the reactor pressure vessels will be supplied by China First Heavy Industries, as for Fuqing. In June 2008, Dongfang Electric Group announced a CNY 5 billion ($725 million) contract for Alstom Arabelle low-speed steam turbine generators for the Fuqing and Fangjiashan plants.

Sanmen

At the end of 2006, the Westinghouse AP1000 reactor design was selected for Sanmen in Zhejiang province (and for Yangjiang in Guangdong province, with the latter site changed to Haiyang). Contracts with Westinghouse and Shaw for two units were signed in July 2007. Site works under CNNC commenced in February 2008 and an engineering, procurement and construction (EPC) contract was signed in March 2009 between SNPTC + CNNC and China Nuclear Engineering & Construction Group (CNEC) for both units, which will be overseen by Westinghouse and Shaw. Other stakeholders are Zhejiang Provincial Energy Group Co Ltd, CPI Nuclear Power Co Ltd, and China Huadian Corp. Construction on Sanmen 1 – the world's first AP1000 unit – officially commenced on 19 April 2009. The reactor is expected to begin operation in August 2013 with unit 2 about one year later. Construction on unit 2 commenced in mid-December 2009. The pressure vessel and steam generators for unit 2 are being made in China. See section on Embarking upon Generation III plants above.

Haiyang

Shangdong Nuclear Power Company (a subsidiary of CPI) signed contracts with Westinghouse and Shaw for two AP1000 units in July 2007. Work on the site is well underway and first concrete was poured in September 2009 for unit 1 and June 2010 for unit 2. The 5000 cubic metre base mat of each was placed in a single pouring of less than 48 hours. The pressure vessel and steam generators for unit 2 are being made in China. These units are expected to commence operation in May 2014 and March 2015. See section on Embarking upon Generation III plants above.

The site will eventually have six or eight units, and in March 2009, the NDRC approved preliminary works for units 3 and 4 at the CPI site, to be AP1000 units. Construction was expected to start late in 2010.

Haiyang will be a CPI training base for AP1000 staff, along with a set-up at Yantai.

Taishan

The first two EPRs planned for Taishan in Guangdong province form part of an €8 billion contract signed by Areva and the Guangdong Nuclear Power Group (CGNPC) in November 2007. The Taishan project (sometimes referred to as Yaogu) is owned by the Guangdong Taishan Nuclear Power Joint Venture Company Limited (TNPC), a joint venture between EDF (30%) and CGNPC. First concrete was poured in October 2009, and unit 1 should be commissioned early in 2014, with unit 2 in 2015. Areva is fabricating major components for both units and expects net capacity to be 1660 MWe each. See section on Embarking upon Generation III plants above.

Site works are reported to be proceeding for units 3 & 4, and construction is expected to start before 2015.

Shidaowan HTR-PM

A demonstration high-temperature gas-cooled reactor plant, with twin reactor modules driving a single 210 MWe steam turbine, was initially approved in November 2005, to be built at Shidaowan in Weihai city, Shandong province, by Huaneng Shidaowan Nuclear Power Company Ltd (HSNPC). It will be part of the Rongcheng Nuclear Power Industrial Park project. The HSNPC joint venture is led by the China Huaneng Group Co – the country's largest generating utility but hitherto without nuclear capacity, and still without NNSA authority to build nuclear plants. Huaneng Power International is investing CNY 5 billion in the project, which received environmental clearance in March 2008. Site work is largely complete, but no NNSA licence has been issued. Subject to this, Huaneng wants to commence construction as soon as possible, for commercial operation in 2015. The latest (unconfirmed) reports suggest that NDRC approval has been given for construction start at the end of March 2011. The EPC (engineering, procurement, construction) contract was let in October 2008, and involves Shanghai Electric Co and Harbin Power Equipment Co. A simulator contract signed in May 2010 was between HSNPC, Chinergy and CGNPC Simulator Co. After three years of negotiation, in March 2011 a contract was signed with SGL Group in Germany for supply of 500,000 machined graphite spheres for HTR-PM fuel by the end of 2013. In November 2010 Huaneng Group signed an agreement with US-based Duke Energy to train nuclear plant staff.

This will be the demonstration plant for a further 18 modules at the site, total 3,800 MWe. (See also Research and development section in page on China's Nuclear Fuel Cycle.)

Shidaowan (PWRs)

In November 2007, China Huaneng Group (CHNG) signed an agreement with CGNPC for the Huaneng Nuclear Power Development Company to build four CPR-1000 reactors at Shidaowan, Rongcheng city, in Shandong province in an $8 billion deal. A letter of intent regarding the first two was signed in 2008. However, this has now become another AP1000 project and National Development and Reform Commission approval is being sought.

In October 2009, the Shidaowan Nuclear Power Development Limited Company was set up with capital contribution 40% CHNG, 30% Huaneng International Power Development Corp. (HIPDC) and 30% Huaneng Power International (HPI) – both being CHNG subsidiaries. Thus none of the authorised nuclear utilities is now involved, though Huaneng is linked with SNPTC on the project through the State Nuclear Demonstration Company – a 55-45% joint venture company by SNPTC and CHNG in respect to building the first CAP1400 units (see Reactor technology section above), two being envisaged after the four AP1000s.

Fangchenggang

The Fangchenggang Nuclear Power Project is located at Hongsha village, in the Beibu Gulf Economic Zone near Bailong in the coastal city of Fangchenggang in the Guangxi Autonomous Region (45 km from the Vietnam border in south China). Following an agreement in July 2006, the first stage (two 1080 MWe CPR-1000 units out of six planned) of the plant was approved by NDRC in October 2008, and again in July 2010. First concrete was poured in July 2010, and about 87% of the first two units will be sourced in China.

In October 2009, a general construction contract was signed with CNPEC. Guangxi Fangchenggang Nuclear Power Co., Ltd., a joint venture between China Guangdong Nuclear Power Group (61%) and Guangxi Investment Group (39%), is responsible for the construction and operation. The first unit is expected to begin commercial operation in 2015, the second in 2016. Total budget is CNY 70 billion ($10.26 billion), with CNY 26 billion ($3.87 billion) for stage 1. (There is also a Fangchenggang supercritical 2400 MWe coal-fired power station operated by CLP Guangxi Fangchenggang Power Company Limited, a 70:30 equity-basis joint venture between China Light & Power and Guangxi Water & Power Engineering (Group) Co., Ltd.)

Tianwan Phases II & III

In October 2006, a preliminary agreement for two further 1060 MWe AES-91 reactors as the second construction phase at Tianwan in Lianyungang city of Jiangsu province was signed with Russia's Atomstroyexport. Construction of units 3 & 4 was to start when both the first two units were commissioned, and hence in November 2007 a further agreement was signed by CNNC. Preliminary approval from NDRC was received in August 2009, and the project is expected to cost $3.8 billion. Protracted discussion on pricing for the Russian components of the plant delayed the project. Eventually, a contract for the engineering design of Tianwan 3 & 4 was signed in September 2010 between Jiangsu Nuclear Power Corporation and Atomstroyexport, and the general construction contract was signed in November 2010. Final approval from NDRC was received in January 2011, and first concrete was scheduled for December 2012 and August 2013.

€1.3 billion was agreed for Atomstroyexport to provide 30% of the plant including nuclear island equipment (reactor, steam generator, pressurisers, primary piping. etc.) and some related equipment. It will not act as the principal contractor, though it insists on retaining intellectual property rights. Jiangsu Nuclear Power Corporation is responsible for about 70% of the project, namely, the civil work, turbine island with equipment and related infrastructure on the site. The turbine generator sets will probably be sourced from Dongfang Electric, using Alstom Arabelle low-speed technology.

Meanwhile, Iskorskiye Zavody, part of OMZ, has started making the major components covered by the Russian €1.3 billion part of the plant. It will manufacture two VVER-1000 reactor pressure vessels with internals and upper units. Delivery should be completed in 2014. The company already took part in making the major equipment for Tianwan 1 & 2, including reactor pressure vessels.

In August 2009, the Assets Supervision & Administration Commission announced that Phase 3 of Tianwan (units 5 & 6) would start construction in October 2010 – now delayed. These are likely to be AES-2006 type, though some reports have them as CPR-1000. Dongfang Electric has a contract to supply turbine generators using Alstom Arabelle low-speed technology. CNNC reported an EPC contract between Jiangsu and CNPE in February 2011, making CNPE the project manager.

Hongshiding (Rushan)

In November 2006, an agreement was signed by CNNC to proceed with the first two units of the Hongshiding nuclear plant at Hongshiding in Weihai or Rushan city, Shandong province, costing $ 3.2 billion, with construction to begin in 2009 and first power in 2015. However, it appears to have been deferred. Six units totaling 6000-8000 MWe are envisaged at the site, with Shandong Hongshiding Nuclear Power Co. Ltd as developer.

Changjiang

CNNC's Changjiang nuclear power plant on Hainan Island started construction in April 2010 for operation of the first unit at the end of 2014 and the second in 2015. It will eventually comprise four 650 MWe PWR units (CNP-600) based on those at Qinshan Phase II. Total cost of the first pair is put at about CNY 20 billion ($2.8 billion). Units 3 & 4 will be built as the second phase of construction. Huaneng Power International (HPI), part of China Huaneng Group (CHNG), holds a 30% share in Hainan Nuclear Power Co Ltd. More than 70% of the plant's equipment is to be made in China.

Sanming

In October 2009, an agreement was signed by CIAE and CNEIC (a CNNC subsidiary responsible for technology imports) with Russia's Atomstroyexport to start pre-project and design works for a commercial nuclear power plant with two BN-800 fast neutron reactors (referred to as Chinese Demonstration Fast Reactors) at Sanming city, an inland part of Fujian province. A site survey and preliminary feasibility study had been undertaken in 2007-08. CNNC in April 2010 established Sanming Nuclear Power Co Ltd as a joint venture company with the Fujian Investment & Development Corp and local government, and initiated a full feasibility study. Construction is due to start in 2013, the local content is targeted at 70%, and the first unit is to be in operation in 2018, and the second following about a year later. A second phase, with units 3 & 4, is due to commence in 2015. The plant will be similar to the OKBM Afrikantov design being built in Russia at Beloyarsk 4 and due to start up in 2012.

Xudabao/Xudabu

CNNC's Xudabao nuclear power station is in Xingcheng City, Huludao, in coastal Liaoning province. The CNY 90 billion (US$15 billion) Xudabao project will comprise six AP1000 reactors, with units 1&2 in the US$4 billion first phase. Site preparation was under way in November 2010, and final NDRC approval in January 2011 will allow construction start in September 2011. CNNC's Liaoning Nuclear Power Company Ltd owns the plant, with Datang International Power Generation Co holding 20% equity, and State Development and Investment Corporation (SDIC) 10%. The general contractor is China Nuclear Power Engineering Company Ltd (CNPE). In October 2010, the Northeast Electric Power Design Institute (NEPDI), Changchun, Jilin, a subsidiary of China Power Engineering Consulting Corporation (CPECC), signed a survey and engineering contract for the plant.

Lianyungang

CGNPC's Lianyungang nuclear power project is planned to have four units of 1000 MWe class to be constructed in phases. This is in Xinxu town, Lianyun district, Lianyungang city, Jiangsu province close to CNNC's Tianwan plant and involving the Jiangsu Nuclear Power Company. A proposal has been submitted to the NRDC and preparations for the project are proceeding, but prospects in the 12th Five Year Plan are uncertain.

Shanwei (Lufeng)

CGNPC's Lufeng Nuclear Power Corporation is making efforts to start on the first two units (of 6) of the Shanwei plant at Lufeng, Tianwei district in eastern Guangdong, but awaits NDRC approval. It will be a CNPEC project. It is in the 12th 5-year plan, so construction start by 2015 is likely.

Zhangzhou

China Guodian's first nuclear power venture, with CNNC holding 51%, will initially have two AP1000 reactors, on the coast in Fujian province.

Inland nuclear power plants

Xianning

In August 2008, CGNPC and Hubei Energy Group Ltd set up the Hubei Nuclear Power Company as a joint venture and announced plans to build a nuclear power plant in Xianning city of the inland Hubei province. Site works for this plant (four AP1000 units) at Dafan are under way. Construction of the first two units was expected to start in 2011, but may be delayed to 2015. The reactor pressure vessel for the first unit is contracted to China First Heavy Industries, and the first two 209 metre high cooling towers to Belgium's Hamon Thermal. The cost of four AP1000 reactors is put at CNY 60 billion ($8.8 billion). This will be CGNPC's first AP1000 plant. A further phase is estimated to cost CNY 45 billion.

The large pre-assembled modules that will make up the bulk of the new AP1000s are to come from a new inland facility owned by new firm Hubei Nuclear Power Equipment Company.

Reports of a Songzi plant may refer to later stages of Dafan, though possible projects in Yangxin county have been mentioned.

The Hubei Nuclear Power Co is also reported to be planning a four-unit AP1000 plant at Guangshui city in the northeast of the province.

Pengze

CPI's Jiangxi Pengze Nuclear Power Project in Jiangxi province is to have four AP1000 reactors costing CNY 60 billion ($8.8 billion). The site has been prepared for the first two units, and safety and environmental approvals were obtained in May 2009. CPI signed the EPC contract framework for phase 1 (units 1 & 2) in August 2009, the engineering project contract was reported to be between CPI Jiangxi Nuclear Power and CPIC. The equipment procurement was reported to be between CPIC and China Power Complete Equipment. CPI aimed to start construction in 2010, for 2013 start-up, but construction may be delayed to 2015. The project is inland in Juijiang city, on the Yangtze River. The cooling towers are being designed by Belgium's Hamon Thermal for the State Nuclear Electric Power Planning Design and Research Institute (SNPDRI).

Taohuajiang

CNNC's Taohuajiang nuclear power plant on the Zi River in Yiyang city, near Yueyang in inland Hunan province will be China's first inland nuclear power plant. It was expected to start construction in September 2010, and site works are under way, but construction may be delayed to 2015. (It is also referred to as the Taohua [peach blossom] River project.) CNNC set up Hunan Taohuajiang Nuclear Power Co Ltd. to build and operate the plant. Initially this was to be 4 x 1000 MWe at a total cost of CNY 34 billion, but it will now be a four-unit AP1000 project costing CNY 67 billion. The main contractor is China Nuclear Industry 23rd Construction Co Ltd; China Erzhong is contracted to supply the main pressure vessel forgings, and Dongfang Electric Corp will supply other major components. Germany's GEA Group is to construct the cooling tower for unit 1: a natural draft unit some 200 metres high and 160 m in diameter, with 15,000 square metres drenching area. Subsequent towers will have increasing local content.

It was approved by the NDRC in November 2005, and in 2008 the project was approved for preliminary construction. The design by SNERDI under SNPTC and SNPDRI was submitted to the NNSA in February 2010 for licensing. A general framework agreement for construction was signed by CNNC with CNPE Corporation as EPC contractor in December 2010. The first unit was originally expected in commercial operation in April 2015, and the fourth in 2018.

Xiaomoshan

The Xiaomoshan nuclear power plant on the Yangtze River in Huarong county, Yueyang city, Hunan province (inland), is a priority project for CPI. It will eventually have six AP1000 reactors and be built by Hunan Nuclear Power Company Ltd in two phases. NDRC approval was given in 2006 but as of mid-2010 NNSA approval was awaited. Site preparation is underway and first concrete was expected late in 2010. The cost is put at CNY 70 billion ($10.25 billion) for the first four units, funded by SNPTC and Wuling Electric Power Development Co. (a CPI subsidiary). The Heimifeng pumped storage plant will be associated with it.

Yanjiashan/Wanan/Ji'an

In August 2009, CNNC (51%) signed a joint venture agreement with Jiangxi Ganneng Co. Ltd and Jiangxi Ganyue Expressway Co Ltd (49% between them) setting up Jiangxi Nuclear Power Co to build the Wanan Yanjiashan nuclear power project at Ji'an in the Jiangxi province. CNNC contracted a feasibility study of Yanjiashan nuclear power program in July 2010. Pre-project work was reported as under way in November 2010. (This is also reported as a CPI project.)

Hengyang

Also in August 2009, CNNC signed an agreement with Hengyang city in Hunan province to build a nuclear power plant there or nearby. This is about 200km south of its Taohuajiang project at Yiyang city in Hunan. China Guodian Corporation, one of the country's largest power producers, is involved in the project though it has no nuclear capacity so far.

Zhongxiang

CNNC's Hubei Zhongxiang nuclear power project is at Zhongxiang city in central Hubei, with China Datang. The 5000 MWe plant is undergoing a detailed feasibility study, but further details are unknown.

Wuhu

The Wuhu nuclear plant on the Yangtze River in the Bamaoshan area, Fanchang county, of Anhui province was planned to have four 1000 MWe CPR-1000 units, but is now designated for AP1000s to be constructed in two phases. CGNPC's proposal for two units of phase 1 has been submitted, some preparatory work is under way and the Anhui Wuhu Nuclear Power Co has been set up, with 51% CGNPC ownership. The environmental impact statement was released for public comment in January 2010. The first unit is due on line in 2016.

Jiyang

Besides Wuhu, CNNC was reported as starting a feasibility study on another four-unit nuclear plant in the Anhui province, at Jiyang in Chizhou city, in December 2008.

Nanchun/Nanchong/Sanba, Yibin

In 2005, Sichuan proposed Nanchun/ Nanchong city east of Chengdu as a suitable site for a nuclear power plant and sought approval for it from the National Development and Reform Commission (NDRC), which was not given, possibly because of seismic concerns. In March 2009, the provincial government signed an agreement with CGNPC to pursue the plan for a Nanchun nuclear power plant, involving the Nuclear Power Institute of China (NPIC), headquartered in Chendu. Preliminary plans in 2008 were for a 4000-6000 MWe Sanba nuclear power plant on the Jialing River, at a cost of CNY 25 billion ($3.7 billion). Majority ownership would be CGNPC.

Another Sichuan agreement for a nuclear power plant project has been signed between CNNC and Yibin city, south of Chengdu.

Shaoguan

CGNPC's Shaoguan nuclear plant will comprise four AP1000 reactors and is expected to cost RMB 50 billion. It will be located in Baitu Town of Qujiang District in Shaoguan City, and will be the first inland nuclear power project in Guangdong. The Shaoguan Nuclear Power Co was established in April 2010.

Xiangtan

In December 2009, China Huadian Corp signed an agreement with Xiangtan city government in Hunan to undertake studies for a CNY 60 billion power plant comprising four 1250 MWe reactors. A refined proposal was expected in September 2010. This will apparently be the fourth nuclear project for China Huadian.

Longyou/ Zhexi

In October 2008 a project proposal was submitted to NDRC by CNNC and Zhejiang Energy Group Co Ltd for a western Zhejiang nuclear power plant in Hangzhou with four AP1000 reactors, though earlier reports had four 1000 MWe units to be built in two phases from late 2010. The proposed site is Tuanshi, Longyou county. Pre-project work was reported as under way in November 2010.

Jingyu

CPI plans to spend CNY 85 billion to build the six-unit Jingyu nuclear power plant near Baishan, in Jilin province, with four AP1000 units to be in stage 1. The project is still in the preliminary feasibility stage, though site preperation is now underway.

Nanyang

To be a six-unit CNNC plant in Henan province. Pre-project work was reported as under way in November 2010.


Further Information

Notes

a. According to the China Electricity Council, electricity consumption in 2010 increased 14.6% to 4190 billion kWh, corresponding with a 10% growth in gross domestic product (GDP). Some 3090 billion kWh of this was in industry. China's energy consumption per unit of GDP met a target reduction of 20% from 2005 levels by the end of 2010, according to the National Development and Reform Commission (NDRC). The energy intensity targets for the following five years are expected to be about 17%. [Back]

b. The CNP series of reactors is also referred to as the CP series. [Back]

c. The ACP600 design appears to be an advanced version of the CNP-600. CNNC expects to complete development of the ACP600 design by 2013. [Back]

References

1. Cost of Pollution in China: Economic Estimates of Physical Damages, The World Bank, State Environmental Protection Administration, P. R. China (February 2007) [Back]

2. Platts Power in Asia, 21 January 2010; China's electricity consumption jumps 14.56% in 2010, Xinhua News Agency (17 January 2011) [Back]

3. International Energy Outlook 2009, Energy Information Administration, U.S. Department of Energy, DOE/EIA-0484(2009), available at www.eia.doe.gov/oiaf/ieo/index.html [Back]

4. Maintain nuclear perspective, China told, World Nuclear News (11 January 2011) [Back]

5. APWR and HTR are listed into the national program, CNNC news release (24 February 2006) [Back]

6. Criticality for fast reactor World Nuclear News (22 July 2010) [Back]

7. 2007 Annual Report of China Power Investment Corporation (26 November 2008) [Back]

8. Unit 3 at Qinshan Phase II Nuclear Power Station begins operation People's Daily Online (22 October 2010) [Back]

General sources

China Guangdong Nuclear Power Group website (www.cgnpc.com.cn)

China National Nuclear Corporation website (www.cnnc.com.cn)

Country Analysis Briefs: China, Energy Information Administration, U.S. Department of Energy, available at http://www.eia.doe.gov/emeu/cabs/index.html

Uranium 2007: Resources, Production and Demand, OECD Nuclear Energy Agency and International Atomic Energy Agency, 2008 (ISBN: 9789264047662)

Nicobar Group website (www.nicobargroup.com)

Dynabond PowerTech website (www.dynabondpowertech.com)

Proceedings of the World Nuclear Association's China International Nuclear Symposium, held in Beijing on 23-25 November 2010.


http://world-nuclear.org/info/default.aspx?id=320&terms=Nuclear%20power%20in%20China