وانا للجميع

2- قامت هيئة تنظيم فطاع الكهرباء برفع
كيلو الكهرباء \
من 91 فلس
الى 280 فلس
للعداد الراكب على عمود الكهرباء
حتى الحصول على اذن الاشغال



3- وزارة الطاقة وهيئة الكهرباء والامانة
راجعتهم اليوم ينعمون بالتدفئة
ونحن تعاني من البرد من رفع الكيلو
3 مرات
يا دولة لمن نشتكي
اشتكي للمؤسسة الامنية والسياسية
انتظر الرد قبل الشروع بتقديم
باقة من الورد الاحمر اليهم
شكرا لهم على الاذى لعائلتي

يا لجنة الطاقة حققوا مع مفوضي هيئة
تنظيم الكهرباء
هل يستحقوا الطرد بعد رفع الكيلو
من 91 فلس
الى 280 فلس
اتستقوون على لقمة طفلتي
وشركة كهرباء عمان يستحقون الطرد
من مراكزهم جببارة ادعوا لمعاقبتهم
لا يحترموا الا الجباية

Reactor fuel is generally in the form of ceramic pellets. These are formed from pressed uranium oxide (UO2) which is sintered (baked) at a high temperature (over 1400°C) a . The pellets are then encased in metal tubes to form fuel rods, which are arranged into a fuel assembly ready for introduction into a reactor. The dimensions of the fuel pellets and other components of the fuel assembly are precisely controlled to ensure consistency in the characteristics of the fuel.
In a fuel fabrication plant great care is taken with the size and shape of processing vessels to avoid criticality (a limited chain reaction releasing radiation). With low-enriched fuel criticality is most unlikely, but in plants handling special fuels for research reactors this is a vital consideration.
Some 27 tonnes of fresh enriched fuel is required each year by a 1000 MWe reactor.

ther Sources of Nuclear Fuel
In the 1990s uranium mines gained a competitor, in many ways very welcome, as military uranium came on to the civil market under a US-Russian agreement. Since then half of the uranium used for electricity in the USA has come from Russian military stockpiles, and worldwide about one sixth of the market has been supplied thus.

Weapons-grade uranium in stockpiles built up during 1950s and 1960s has been enriched to more than 90% U-235 and must be diluted about 1:25 or 1:30 with depleted uranium (about 0.3% U-235). This means that progressively, Russian and other stockpiles of weapons material are used to produce electricity.

Weapons-grade plutonium may also be used to make mixed oxide (MOX) fuel for use in ordinary reactors or in special reactors designed to 'burn' it for electricity. Another US-Russian agreement covers disposition of military plutonium from both countries into MOX fuel.

The dangers of nuclear energy have been on the minds of top officials the world over since the Fukushima Daiichi disaster in 2011.

Few will soon forget that meltdown – or the ongoing issues it is causing, as contaminated water piles up in storage tanks.

It's happened before, and it could happen again...

What if another Superstorm Sandy arrives, this time headed for a nuclear site?

That's what makes thorium more attractive now than ever.

The element that takes its name from the god of thunder is powerful.

Its melting point is so high, in fact, that it could be virtually meltdown-proof.

Imagine a world in which we can produce clean nuclear energy without the fear of a nuclear disaster.

Thorium offers that future.