Wind Power For 1.2m Homes Is Wasted Because Of Lack Of Storage
The title of this post, is the same as that of this article on the Daily Telegraph.
These two paragraphs outline what happened.
Enough wind power to supply 1.2m homes a day was wasted over winter because there is no capacity to store extra energy generated on gusty days, according to new research.
National Grid’s electricity system operator asked wind turbines which were expected to generate about 1.35 terawatt-hours of electricity between October and January to switch off instead because they were not needed to meet demand at the time, according to the consultancy Stonehaven.
The problem has been flagged up by Rupert Pearce of Highview Power, who in my view could have a solution with their CRYOBatteries.
Pearce is quoted as saying this.
Renewable energy storage is essential to powering a cleaner, cheaper, always-on Britain.
By capturing and storing excess renewable energy, which is now the UK’s cheapest, most secure and most abundant form of energy, we can power Britain’s homes and businesses with renewable green energy, taking millions of tonnes of carbon out of the atmosphere and ending a culture of reliance on expensive foreign imports.
He’s too bloody right! And my experience of mathematical modelling large vessels at ICI in the 1970s, says that Highview Power have one of the sensible solutions to large scale energy storage.
Wind Generation Sets New Record In UK Surpassing 21 GW
The eye-catching title of this post, is the same as that of this article on Renewables Now.
I regard anything over 20 GW as very good, as the UK’s average daily consumption is typically around 23 GW, so surely we can find a couple of gigawatts of biomass, gas, hydro or nuclear.
The Renewables Now article says this about UK electricity generation.
According to National Grid ESO, on Monday, January 9, wind accounted for 50.2% of British electricity, nuclear for 15.9%, gas for 13.1%, imports for 10%, biomass for 4.8%, hydro for 3.8%, solar for 1.3% and coal for 1.1%. Tuesday’s wind record may undergo slight adjustments in expectation of all data for yesterday.
I shall be following these figures.
- Especially, as Wikipedia says another 3 GW will be installed this year.
But it does seem that we’re getting there with renewable electricity.
A Thought On Energy Storage
I also think that if we are generating large amounts of electricity at times, which are more than we need, then we had better crack on and build lots of energy storage.
If we don’t need the energy and Europe or Ireland doesn’t want it, then we must store it, so that if the wind isn’t blowing we can recover it for a useful purpose, even if it is only selling it to the Germans to make hydrogen, which is used to replenish their stores.
Scotland’s Renewable Energy Jackpot: Hydrogen Exports Alone Could Be worth £25 Billion A Year By 2045
The title of this post, is the same as that of this article on the Edinburgh News.
This is the sub-heading.
Scotland is a phenomenally energy rich country. For decades the largest oil-producing nation in the European Union, it is now set to trail-blaze as a leader in renewable energy.
The title and sub-heading say it all for Scotland.
But these words could equally well apply to Anglesey, Cornwall, Devon, East Anglia, Humberside, Liverpool and Morecambe Bays, the Severn Estuary and Pembrokeshire.
We also mustn’t forget the Dogger Bank!
71 Offshore Wind Applications Now Filed In Brazil, Proposals Total 176.6 GW
The title of this post, is the same as that of this article on offshoreWIND.biz.
ECML Net Zero Traction Decarbonisation
This project was one of the winners in the First Of A Kind 2022 competition run by Innovate UK.
In this document, this is said about the project.
Project No: 10036245
Project title: ECML Net Zero Traction Decarbonisation
Lead organisation: SIEMENS MOBILITY LIMITED
Project grant: £59,983
Public description: Electrification is the foundation of all modern railways and fundamental to decarbonisation. Through
delivering faster, smoother, quieter and more reliable train services, rail electrification reduces
industry fuel cost by 45%, rolling stock costs by 33%, and track maintenance costs by 10-20%
(compared to diesel operation). Electric railways are the most efficient, lowest carbon form of
transportation in the UK.
Network Rail operates the largest power distribution network in the UK, and is the largest consumer
of electricity in the UK, consuming 4TWh electricity per year. Power is provided from the electricity
supply industry, a mix of gas, nuclear, coal and renewables, emitting approximately 944,000 tonnes
of carbon dioxide annually. Connecting new renewable generation directly to the railway reinforces
the railway power supply, while reducing coal and gas use in the UK and is a longstanding Network
Rail industry challenge statement. To date, engineering incompatibilities between renewable,
electricity supply systems and the railway single-phase electrical and other railway systems have
prevented local renewable connection in rail.
In a world first, Siemens Mobility, working with British Solar Renewables, DB Cargo UK, Network
Rail, ECML operators, and the University of York, will directly connect large-scale renewable
generation to the East Coast Mainline. The demonstrator phase will deliver up to 1GWh green
electricity direct to trains each year, reducing UK gas imports by 151,000 cubic metres and carbon
emissions by 236 tonnes annually. It will gather vital data creating a new green industry, creating a
precedent and setting standards to enable larger scale roll-out across the UK.
My Thoughts And Conclusion
This page on the Network Rail web site is entitled Power Supply Upgrade.
Since 2014, Network Rail and its partners have been upgrading the overhead electrification and the associated substations and electricity supply on the East Coast Main Line (ECML).
- It is not a small project which includes fifty new substations and 1,600 km. of new cabling between London and Edinburgh.
- When complete, fleets of electric trains on the route will be receiving high-quality electric power from the upgraded overhead electrification.
However, the East Coast Main Line is unique among British electrified main lines, in that it runs more or less close to a coast, that is populated by a large number of massive wind farms.
I believe the objective of this project, is to more directly connect the massive wind farms to the East Coast Main Line.
Lessons learned could then be applied to other electrified main lines.
We may even see onshore wind farms or small modular nuclear reactors built to power the railways.
Hydrogen-Powered Turbines May Help Clean And Improve Electrical Grid Reliability
The title of this post, is the same as that of this article on Hydrogen Fuel News.
This is the first paragraph.
In less than three years, one or more hydrogen-powered turbines are expected to be up and running at or near New Jersey’s Bayonne Energy Center power plant, which feeds power to New York City.
Note.
- The Bayonne Energy Center is a peaker plant with ten gas turbines, with a total capacity of 640 MW.
- Peaker plants automatically cut in, when power demand is high, but power generation is low.
- The Bayonne Energy Centre transfers power to New York, through an underwater cable.
- The electrolyzers will be made by Ohmium International Inc and I suspect they will be powered by offshore wind.
- The hydrogen that is created will be stored. As Bayonne has a history of chemical manufacturing, there may be salt caverns that can be used or the hydrogen could be stored as a compressed gas or liquid in tanks.
I can see hydrogen being used in peaker plants elsewhere in the world, where there is lots of renewable energy and suitable hydrogen storage.
The hydrogen can also be used to decarbonise local industries and transportation.
The Potential For Wind Power In New Jersey
Wikipedia says this about the potential of wind power in the state.
New Jersey has the potential to generate 373 GWh/year from 132 MW of 80 m high wind turbines or 997 GWh/year from 349 MW of 100 m high wind turbines located onshore as well as 430,000 GWh/year from 102,000 MW of offshore wind turbines.
Note.
- New Jersey used 76,759 GWh in 2011
- It appears that most of these turbines would be located along the coast.
There is also a worry about hurricanes. But solving that is an engineering problem.
From my experience of modelling floating structures, I believe they may stand up to high winds better. But I’m not sure!
Is This The World’s Best Renewable Energy Video?
This is a promotional video from Minesto about their Deep Green technology.
Is it a serious proposition or is it just kite-flying?
After reading their web site in detail, I think they are serious.
Here’s why!
The Company Is A Well-Backed Spin-Out from Swedish Aerospace Company SAAB
These two paragraphs are from the About Us page.
Minesto is a marine energy technology developer, founded in 2007 as a spin-off from Swedish aerospace manufacturer Saab. Since then, Minesto has successfully developed its unique Deep Green technology.
The company has operations in Sweden, Wales, Northern Ireland and Taiwan, with headquarters in Gothenburg, Sweden. Main owners are BGA Invest and Midroc New Technology. The Minesto share is listed on the Nasdaq First North Growth Market in Stockholm.
A company rarely succeeds without appropriate and sufficient financial backing.
One Of Their Target Markets Is Powering Remote Islands
This page from World Atlas is entitled Which Countries Have The Most Islands?
These are the top five countries.
- Sweden – 267,570
- Norway – 239,057
- Finland – 178,947
- Canada – 52,455
- United States – 18,617
Note.
- That’s a lot of islands.
- The United Kingdom is 26th with a thousand islands.
- Scandinavia has 685574 islands or 686993 if you include Denmark.
Sweden has a thousand inhabited islands, so that means that in Scandinavia alone, there are about 2,500 inhabited islands. How many need a reliable decarbonised power supply?
In the UK, we are developing Remote Island Wind to serve similar locations, which I wrote about in The Concept Of Remote Island Wind.
The UK and Minesto are both looking at the supply of power to remote islands.
One of Minesto’s projects is in the Faroe Islands and it is described in this page on the Minesto web site, which has a title of Faroe Islands – Tidal Energy To Reach 100% Renewable By 2030.
These are the first two paragraphs.
In the Faroe Islands, Minesto is part of one of the world’s most ambitious energy transition schemes.
Collaborating with the electric utility company SEV, Minesto is working to pave the way for tidal energy to become a core part of the Faroese energy mix, allowing them to reach 100% renewable energy by 2030.
Onshore wind and tidal could be an ideal combination, if they worked together.
At the bottom of the Faroe Islands page, the web site talks about The Deep Green Island Mode Project, where this is said.
In June 2019, Minesto was awarded a €2.5 million grant from the European Commission’s SME Instrument programme. The awarded funding will support the installation of Minesto’s technology in the Faroe Islands together with the utility company SEV. The aim of the project, called Deep Green Island Mode (DGIM), is to install Minesto’s first two commercially viable microgrid units in a production and customer environment.
Successful demonstration of DGIM will act as a first step to developing commercial ties with utilities across Europe, both for smaller-scale microgrid systems and as a catalyst for the market up take of larger utility-scale Deep Green systems.
This is also said about the number of installations in Europe.
15 million Europeans live on Europe’s 2,400 inhabited islands, at an average of approximately 1,500 households per island. As recognised by the European Commission, island energy is expensive, polluting, inefficient and dependent on external supply, with significant negative impacts on emissions, the competitiveness of businesses, and the economy.
It appears to me, that Minesto have researched their market well.
Minesto Can Provide Baseload Power
Another of Minesto’s projects is in Taiwan and it is described in this page on the Minesto web site, which has a title of Taiwan – Replacing Nuclear With Renewable Baseload.
These are the first two paragraphs.
In Taiwan, Minesto is carrying out site development with the purpose to establish the first tidal energy arrays with Minesto’s technology in Asia – and to demonstrate renewable baseload generation from the continuously-flowing Kuroshio current.
The conditions for extracting marine energy in Taiwan are very good due to access to both tidal streams and continuous ocean currents. Taiwan aims to produces 20% of electricity from renewable sources by 2025 and has decided to scrap its nuclear power capacity within the same timeframe. Today, 97.5 percent of the country’s total energy use comes from imported fossil fuels.
Taiwan has a well-developed industrial infrastructure and a number of stakeholders in the private and public sectors are active in marine energy.
Decarbonising Taiwan and removing nuclear is a tough ask!
Conclusion
Minesto may be kite-flying in an unusual way, but they appear to be a very serious Swedish company.
Five Long-Duration Energy Storage Projects Get Funding In New York
The title of this post, is the same as that of this article on Power Engineering.
These are the two opening paragraphs, which outline the state’s ambitions.
New York awarded $16.6 million in funding for five long-duration energy storage projects and made another $17 million available for projects that advance development of long-duration energy storage technologies, including hydrogen.
The state’s larger goal is to install 3,000 MW of energy storage by 2030 to help integrate renewables. New York wants to eventually develop 6,000 MW.
The article then lists the projects, which I will look at in separate posts.
The Future Is Blowing In The Wind
In Can We Move The Equilibrium Point Of The Energy Market?, I have been adding up all of the renewable energy to be commissioned in the next few years.
I am only looking at schemes that are being built or are consulting the public, have contracts and are by reputable and reliable developers, like BP, Equinor, Orsted, Scottish Power, Shell, SSE and Wattenfall
The numbers are not small.
This year 3.2 GW, should be commissioned, with another 2.3 GW in 2023. But the total between now and 2028 is at least 30 GW plus Hinckley Point C. In fact it could be higher, as I have ignored nearly all of the 25 plus GW of the Scotwind projects in the seas around Scotland.
As the UK needs about 23 GW to wash its face and we already have 25.5 GW of renewables installed, by the mid point of the decade, we should be able to reorganise our energy, by cutting gas usage for power generation and exporting surpluses to Europe.
The future is blowing the wind!
Consortium Plan To Build & Operate Scotland’s First Low Carbon, Energy Efficient, Soil-Free Vertical Farms In The Central Belt
The title of this post, is the same as that of this press release from RheEnergise.
These four paragraphs introduce the project.
A consortium of four British companies have earmarked a series of sites between Dumbarton and Dundee for the locations of Scotland’s next generation of hectare+ scale vertical farms, powered by 100% Scottish renewables. These farms would provide locally produced fresh foods (salads and fruits) to over 60% of the Scottish population.
The vertical farms will help meet the Scottish Government’s ambitions to produce more homegrown fruit and vegetables. Each vertical farm would be powered by locally produced renewable energy.
Next generation vertical farms use advanced soil-free growing techniques and stack crops in specially designed beds and trays. They minimise water, fertiliser and pesticide use which is highly beneficial to the environment and make use of artificial lighting and climate control to get the desired results.
The V-FAST consortium comprises UK Urban AgriTech (UKUAT), Vertegrow Ltd, Light Science Technologies Ltd and RheEnergise Limited, the UK energy storage company.
The press release is certainly worth a detailed read.
The Anonymous Widower 