There isn't a decent sized solar farm in the UK where the information is available on both cost and electricity generated.
Turn to France and we've got it all:
Source 1 Source 2
Calculating the Output of a 300 MW Plant in the UK:
2012: 1,736 MW delivered 1,328 GWh
So 300 MW would deliver 229.5 GWh
2013: 2,822 MW delivered 2,015 GWh
So 300 MW would deliver 214.2 GWh
2014: 5,228 MW delivered 3,931 GWh
So 300 MW would deliver 225.6 GWh
2015: 8,915 MW delivered 7,556 GWh
So 300 MW would deliver 254.3 GWh
Statistics Section - Table
Average of 229.5 + 214.2 + 225.6 + 254.3
= 230.9 GWh/year
Reasonable Life Expectancy of a Solar Array to fall to 80% efficiency - 30 years Source
The average over 30 years of delivery would be 90% of
the 230.9 average value: 230.9 x 0.9 = 207.8 GWh/year
Delivery over 30 year Life Expectancy = 6.234 TWh
Exchange Rate 2014: GBP/USD - 1.6$ to the £ Source
So 2014 cost of 300 MW UK Plant = £281.25 million
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Comparative Data: Hinkley Point C Nuclear Power Plant
Source 1 - Page 15 Source 2
Delivery over 60 year Life Expectancy = 1,513.7 TWh
1,513.7 ÷ 6.234 = 242.8
242 Cestas-sized Solar Parks would have to be built
to deliver the same amount of electricity !
242 x 281,250,000 = 68,062,500,000
242 Cestas-sized Solar Parks would cost £68 billion !
£68 billion ÷ £18 billion = 3.78
For the same capital expenditure nuclear power will deliver nearly
4X more 24/7 electricity
than the intermittent electricity delivered by Solar Parks
--------------------//--------------------
242 x 2.5 = 605
242 Solar Parks would cover 605 square kilometres.
Solar Parks just about covering the
Pembrokeshire Coast National Park !
Imagine: Adventures Not In A Solar Park
Calculating the Output of a 300 MW Plant in the UK:
2012: 1,736 MW delivered 1,328 GWh
So 300 MW would deliver 229.5 GWh
2013: 2,822 MW delivered 2,015 GWh
So 300 MW would deliver 214.2 GWh
2014: 5,228 MW delivered 3,931 GWh
So 300 MW would deliver 225.6 GWh
2015: 8,915 MW delivered 7,556 GWh
So 300 MW would deliver 254.3 GWh
Statistics Section - Table
Average of 229.5 + 214.2 + 225.6 + 254.3
= 230.9 GWh/year
Reasonable Life Expectancy of a Solar Array to fall to 80% efficiency - 30 years Source
The average over 30 years of delivery would be 90% of
the 230.9 average value: 230.9 x 0.9 = 207.8 GWh/year
Delivery over 30 year Life Expectancy = 6.234 TWh
Exchange Rate 2014: GBP/USD - 1.6$ to the £ Source
So 2014 cost of 300 MW UK Plant = £281.25 million
--------------------//--------------------
Comparative Data: Hinkley Point C Nuclear Power Plant
Source 1 - Page 15 Source 2
Delivery over 60 year Life Expectancy = 1,513.7 TWh
1,513.7 ÷ 6.234 = 242.8
242 Cestas-sized Solar Parks would have to be built
to deliver the same amount of electricity !
242 x 281,250,000 = 68,062,500,000
242 Cestas-sized Solar Parks would cost £68 billion !
£68 billion ÷ £18 billion = 3.78
For the same capital expenditure nuclear power will deliver nearly
4X more 24/7 electricity
than the intermittent electricity delivered by Solar Parks
--------------------//--------------------
242 x 2.5 = 605
242 Solar Parks would cover 605 square kilometres.
Solar Parks just about covering the
Pembrokeshire Coast National Park !
Imagine: Adventures Not In A Solar Park
Good assessment. NOW include the cost of the battery pack needed to actually averge out the solar power. I will even let the solar battery only be required to fit the demand form factor.
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