H2Rescue Truck Smashes World Record With 1,806 Miles On A Single Hydrogen Fill!
The title of this post, is the same as that of this article on Hydrogen Fuel News.
This is the sub-heading.
H2Rescue Truck Sets New World Record in Hydrogen Transportation
These first two paragraphs add more detail.
A groundbreaking milestone in hydrogen-powered transportation has been achieved by the H2Rescue truck, a prototype heavy-duty vehicle capable of addressing energy challenges during disaster relief. Built by Accelera (a division of Cummins), with support from the U.S. Department of Energy (DOE) and other federal agencies, the truck recently achieved a Guinness World Record by traveling an astonishing 1,806 miles on a single fill of hydrogen fuel.
What makes this feat remarkable is the environmental implications of the technology. While a traditional internal combustion engine would have emitted 664 pounds of carbon dioxide (CO2) over the same distance, the hydrogen-fueled H2Rescue truck produced zero CO2 emissions. Hydrogen-powered vehicles like this one exemplify cutting-edge innovation in decarbonizing transportation.
This last paragraph describes the use of the vehicle in emergencies.
More than just a long-distance performer, the H2Rescue truck is an essential tool during emergencies. It can provide 25 kilowatts of power for critical relief operations, such as lighting, medical equipment, and communication systems, for up to 72 hours without refueling. This capability could make a significant difference in disaster zones, where reliable energy sources are often scarce.
Cummins are certainly serious about the innovative use of hydrogen.
Did I Come Across A HiiRoc-Style Process In the 1960s?
The home page of the HiiROC web site has a title of Thermal Plasma Electrolysis with this sub-heading.
A Transformational New Process For Affordable Clean Hydrogen.
This is the first paragraph.
Leading with our proprietary plasma technology, HiiROC has developed a new process for producing affordable clean hydrogen: Thermal Plasma Electrolysis
The further I read it starts to appear familiar.
It was a long time ago in 1968, but I shared an office at ICI Mond Division with a guy called Peter, who was helping to try to get a similar process working.
ICI were using a bought-in process to try to make acetylene.
I seem to remember that ethylene was burnt in a aerosphere with little oxygen.
Was it then quenched with naphtha?
Acetylene was then supposed to be released, but all the plant did was produce lots of soot, which it spread all over Runcorn.
Peter’s job was to measure the acetylene in the burner off gas. The section I worked in had developed, a very clever instrument that could measure levels of one chemical in another by infra-red comparison to very low levels.
In this plant, it was measuring acetylene in burner off-gas.
They did it successfully, but it was a disaster, as the gas on the output of the burner was straying into explosive limits.
The plant was was immediately shut down and dismantled.
ScottishPower Renewables Picks Port For East Anglia Two Pre-Assembly
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
ScottishPower Renewables, Iberdrola’s UK arm, has selected Peel Ports Great Yarmouth as the staging ground for pre-assembly works for its 960 MW East Anglia Two offshore wind project.
This is the introductory paragraph.
The companies have signed a reservation agreement that will see the Siemens Gamesa turbine components and sections come together for assembly at the Norfolk site before installation in the southern North Sea in 2028.
Note.
- The Port of Great Yarmouth was used for this task with East Anglia One.
- The turbine blades will be manufactured at Siemens Gamesa’s offshore wind blade factory in Hull.
- The monopiles will come from Sif in Rotterdam.
This is the first sentence of the Wikipedia entry for the East5 Anglia Array.
The East Anglia Array is a proposed series of offshore wind farms located around 30 miles off the east coast of East Anglia, in the North Sea, England. It has begun with the currently operational East Anglia ONE, that has been developed in partnership by ScottishPower Renewables and Vattenfall. Up to six individual projects could be set up in the area with a maximum capacity of up to 7.2 GW.
These articles on offshoreWIND.biz indicate that ScottishPower Renewables has been busy signing contracts for East Anglia Two.
- December 4th, 2024 – Nexans Lands Export Cable Contract For East Anglia Two Offshore Wind Farm.
- November 28th, 2024 – Hitachi Energy to Integrate 960 MW East Anglia Two Wind Farm into UK Grid.
- November 12th, 2024 – Siemens Gamesa Bags GBP 1 Billion Turbine Contract For East Anglia Two.
- November 6th, 2024 – Seaway7 Wins East Anglia Two Inter-Array Cable Contract.
- October 31st, 2024 – Sif, Smulders to Deliver Monopiles and TPs For ScottishPower’s East Anglia Two Offshore Wind Farm.
They must have employed lawyers on roller skates to get five contracts signed in just over a month.
Conclusion
East Anglia Two appears to be definitely under way and the Wikipedia extract says there could be a lot more, if all the other wind farms are developed in the same way using the Port of Great Yarmouth.
A total capacity in the East Anglia Array of 7.2 GW will surely be good for both East Anglia and the UK as a whole, but will the natives be happy with all the onshore infrastructure?
I wouldn’t be surprised to see further wind farm developed to generate hydrogen offshore, which will be either brought ashore to the Bacton gas terminal, using existing or new pipelines or distributed using tanker ships to where it is needed.
Petition Calls Made To Scrap Blackwall And Silvertown Tolls
The title of this post, is the same as that of this article on the BBC.
This is the sub-heading.
A petition containing more than 37,000 signatures calling for proposed tolls on the Blackwall and Silvertown tunnels to be scrapped has been presented at City Hall.
These four paragraphs give more details.
Toll charges of up to £4 per journey through the soon-to-open Silvertown Tunnel and the neighbouring Blackwall Tunnel were announced by Transport for London (TfL) on 26 November.
The Silvertown Tunnel will open next spring and will provide a new road crossing under the Thames between Silvertown and the Greenwich Peninsula.
The charges are “designed to manage levels of traffic using the tunnels”, TfL has said.
A TfL spokesperson added that without the tolls, “traffic would increase in both tunnels causing delays and congestion, which contribute to poorer air quality”.
Note.
- 37,000 is a large petition.
- If Transport for London wanted to reduce pollution, they could encourage greater use of hydrogen.
I have done some simple modeling using Excel.
- There are six vehicle crossings; Dartford Bridge, Dartford Crossing, Woolwich Ferry, Silvertown Tunnel, Blackwall Tunnel and Rotherhithe Tunnel.
- Matters are complicated by each crossing being a different size.
- There are several reliable rail crossings and a number of foot crossings, which offer alternatives, for those travellers on foot.
- Currently the worst disruption occurs, when more than one route is out of action at the same time.
It is a very complex river crossing,
I feel strongly that we aren’t going to get a true picture of traffic flow through the two new tunnels, until we see serious disruption on the Dartford Crossing.
But what worries me most, is that in the last few years, TfL have made decisions, where they must have done extensive mathematical modelling and they seem to have come up with answers, that are wide of the mark.
Congestion Prediction
I believe that we now have enough data, that by the use of modern computing, advanced vehicle detection techniques and a liberal dollop of artificial intelligence we should be able to accurately predict the traffic flow over the Thames between Dartford and Silvertown, better than we have done in the past.
But will this just mean, that everybody just takes the least-congested route?
BP’s Morven Wind Farm At Risk Of Missing Start Date
The title of this post, is the same as that as this article in The Times.
This is the sub-heading.
A lengthening queue for grid connection could scupper plans to provide energy for three million homes from a development in the North Sea by the end of the decade
These two paragraphs introduce the article.
One of the largest wind farms in the UK risks missing its 2030 target to start generating power, due to lengthy grid connection queues and supply chain shortages.
The Morven Wind Farm being developed by BP, which is to be located 38 miles off the coast of Aberdeen, will have capacity of 2.9 gigawatts, which is expected to be capable of powering three million homes in Britain.
The delays in getting a grid connection and obtaining various electrical parts could derail BP’s plans.
The Morven wind farm is one of three being developed by a partnership of BP and a German company, which is outlined in this paragraph.
Morven is one of three UK wind farms being built by BP in a joint venture with Energie Baden-Württemberg AG (EnBW), the German energy company. The other two, Mona and Morgan, are being developed in the Irish Sea and have already secured grid connections.
These are my thoughts on the problems with the Morven Wind Farm.
Everybody is assuming that there will be a large cable to bring the 2.9 GW of electricity to the Scottish coast somewhere near Aberdeen.
Cables can be a problem as the article indicates, with connection to the grid and the erection of large numbers of pylons being major ones.
But the energy from Morven doesn’t necessarily need to go to Scotland.
It can be converted into hydrogen using an offshore electrolyser and sent to where it is needed by pipeline or a tanker ship.
I have also noted that BP’s partners are German and Germany has a massive need for zero-carbon energy to replace the large amount of coal they burn.
The Germans are building a massive pipeline called AquaVentus, from their North-West coast to the Dogger Bank, to collect hydrogen created by up to 10 GW of offshore wind farms in the German Ocean or their part of the North Sea to the shore.
I introduced AquaVentus in this post called AquaVentus.
This video shows the structure of AquaVentus.
I clipped this map from the video.
Note.
- The thick white line running North-West/South-East is the spine of AquaVentus, that will deliver hydrogen to Germany.
- There is a link to Esbjerg in Denmark, that is marked DK.
- There appears to be an undeveloped link to Norway, which goes North,
- There appears to be an undeveloped link to Peterhead in Scotland, that is marked UK.
- There appears to be a link to just North of the Humber in England, that is marked UK.
- Just North of the Humber are the two massive gas storage sites of Aldbrough owned by SSE and Brough owned by Centrica.
- Aldbrough and Rough gas storage sites are being converted into two of the largest hydrogen storage sites in the world!
- There appear to be small ships sailing up and down the East Coast of the UK. Are these small coastal tankers, that are distributing the hydrogen to where it is needed?
When it is completed, AquaVentus will be a very comprehensive hydrogen network.
- Pipelines from Denmark, Norway, The Netherlands and the UK will feed directly into AquaVentus.
- Will enBW and BP build a giant offshore electrolyser at Morven and send the hydrogen to Germany via the spine of AquaVentus?
- Will AquaVentus use the vast hydrogen storage North of Hull to store excess hydrogen?
- Will connections be built between AquaVentus and the UK’s Northern gas terminals at St Fergus and Easington?
If AquaVentus works as intended, Germany’s Russian gas will be replaced by zero-carbon hydrogen, a large proportion of which will come from the UK’s waters.
Where Will We Get Our Electricity From?
If the energy from Morven is sold to the Germans as hydrogen, where will we get the energy we need?
Morven is just one of several large wind farms and being developed around the North of Scotland and we’ll probably use the energy from another wind farm.
- Wind farms that can best send their energy to the grid, will do so.
- Wind farms that can best send their energy to one or more of the large Scottish pumped storage hydro-electric power-stations, will do so.
- Wind farms that can best send their energy to Germany as hydrogen, will do so.
- Wind farms that can best send their energy to Scotland or another country as hydrogen, will do so.
The hydrogen will get distributed to those who need it and can pay the appropriate price.
Where Will The Turbines And the Electrical Gubbins Come From?
I’m sure that if Morven was sending a couple of GW of hydrogen to Germany, Siemens could build the turbines and the associated electrical gubbins needed at a favourable price, with an acceptable delivery date.
Conclusion
Germany will likely be pleased, in that they will be able to close a lot of very dirty coal-fired power stations, by replacing coal with green hydrogen.
The UK should be pleased, as the Germans will pay us for the hydrogen.
As for Putin, who knows, what the mad Russian will do?
The Incredible £7m Hydrogen Train To Be introduced In ‘Fastest Growing’ Country
The title of this post, is the same as that of this article in the Express.
This is the sub-heading.
Each hydrogen train is priced at £7 million and can run up to 621 miles (1,000km) on a single tank, reaching speeds of 87mph (140 km/h).
These two paragraphs add more details.
India is the fastest-growing economy among G20 nations and is set to launch its first hydrogen-powered train this December.
The groundbreaking train will debut on the Jind-Sonipat route in Haryana and will mark a massive step toward eco-friendly rail travel.
If you look at the article, there is an impressive looking picture, but it may be a visualisation.
This page on etnow.in has an interesting paragraph.
- In this context, the launch of Hydrogen trains deserves special mention. The national transporter has envisaged running 35 Hydrogen trains under “Hydrogen for Heritage” on various heritage and hill routes.
Does that mean that Indian Railways are using hydrogen-powered trains to avoid spoiling the scenery with overhead wires?
Hydrogen-powered trains in India could be a story to watch.
Large Scale Hydrogen Storage Sites Could Reduce Customer Energy Costs By £1bn Per Year
The title of this post, is the same as this press release from Centrica.
These four paragraphs summarise the report.
Centrica and FTI report finds that hydrogen storage would help balance the UK’s energy system and reduce bills.
A net zero scenario including large scale hydrogen storage – specifically, a redeveloped Rough gas storage facility – would reduce energy costs by an additional £1bn per year by 2050.
Report also finds that a UK energy system focused on renewable generation risks high levels of intermittency without an established hydrogen market. By 2050, electricity generation from renewables could exceed total demand around 15% of the time.
Electricity generation from renewables could also rise or fall by as much as 100GW over the course of a single day. More than twice current levels of peak demand on winter evenings and the equivalent energy output from over 30 Hinkley Point C nuclear power stations.
Note.
- Hydrogen Central entitles their article about the Centrica press release Centrica Says Hydrogen Can Reduce Household Bills by £35 a Year. That’s almost a bottle of my favourite Adnams beer a week!
- I talked about the redevelopment of the Rough facility into hydrogen storage in Aberdeen’s Exceed Secures Centrica Rough Contract.
- Generating hydrogen from excess electricity and storing it until it is needed, must be an efficient way of storing electricity or powering industrial processes that need a lot of energy, if storing hydrogen makes £1bn per year!
- It should be noted that Centrica have a large interest in HiiROC, who are developing an efficient way to generate hydrogen from any hydrocarbon gas from chemical plant off-gas through biomethane to natural gas. In a perfect world a HiiROC system in a sewage works could capture the biomethane and split it into hydrogen and carbon black. The hydrogen could be used to refuel vehicles and the carbon black would be taken away to someone, who has need of it.
In some ways, it is surely sensible to have enough energy in a store, if the renewables fail. As Rough is already there and functioning, it is surely one of the easiest routes to redevelop Rough, so that it is in top-quality condition.
It should also be noted, that Rough is not far from the Aldbrough Gas Storage, which SSE are converting to a second massive hydrogen store.
So Humberside will have two of the largest hydrogen stores in the world, which Centrica and SSE will use to maxise energy security in the wider Humberside and East Yorkshire area, and I suspect to maximise their profits as well.
This video shows the structure of AquaVentus, which is a pipeline system, that the Germans are building to bring much-needed hydrogen to German industry from electrolysers in the North Sea and other countries like Denmark, Norway, the Netherlands and the UK.
I clipped this map from the video.
Note how a branch of AquaVentus makes landfall around the Humber estuary at a UK label.
Will Centrica and SSE be trading hydrogen from Rough and Aldbrough with the Germans through AquaVentus? You bet they will, as the Germans are short of both hydrogen and hydrogen storage.
Wrightbus StreetDeck Ultroliner Next-Gen To Get Cummins Power
The title of this post, is the same as that of this article on Route One.
These three paragraphs give more details.
Wrightbus will utilise Cummins power in its StreetDeck Ultroliner diesel double-decker for the first time in a next-generation variant of that model.
Those vehicles will be powered by the six-cylinder B6.7 engine rated at 250bhp or 300bhp, driving through the Voith DIWA.8 seven-speed automatic gearbox. Such an approach will further reduce emissions, and the new model will be Ultra-Low Emission Bus accredited by Zemo Partnership, the manufacturer says.
The existing StreetDeck Ultroliner, which is powered by the Daimler OM 934 four-cylinder engine, will continue to be available. The first Cummins-powered examples are to be supplied to Isle of Man operator Bus Vannin.
As a hydrogen version of the the Cummins six-cylinder B6.7 engine is available, at some point in the future, these buses will be convertible to zero-emission hydrogen power.
Wrightbus have already set up a division called New Power to do the conversion of existing buses, as I reported in Wrightbus Launches NewPower In Bicester.
The Versatile Substance That Is Carbon Black
I suspect very few of us think much about carbon black.
In an over fifty-year working life, I have only come across carbon black indirectly and no-one has actually shown me any carbon black.
This is the first sentence of the Wikipedia entry for carbon black.
Carbon black (with subtypes acetylene black, channel black, furnace black, lamp black and thermal black) is a material produced by the incomplete combustion of coal tar, vegetable matter, or petroleum products, including fuel oil, fluid catalytic cracking tar, and ethylene cracking in a limited supply of air.
It doesn’t sound the most appetising of substances and the next sentence reinforces that view.
Carbon black is a form of paracrystalline carbon that has a high surface-area-to-volume ratio, albeit lower than that of activated carbon. It is dissimilar to soot in its much higher surface-area-to-volume ratio and significantly lower (negligible and non-bioavailable) polycyclic aromatic hydrocarbon (PAH) content.
The text is illustrated with what looks like a small pile of soot.
I first came across carbon black, in my first job after leaving Liverpool University at ICI Mond Division at Runcorn.
For a time, I shared an office with Peter, who was part of a number of engineers, who were trying to get a new plant, that had been purchased from BASF to make commercial quantities of acetylene. All the plant seemed to make was large quantities of soot, which it then proceeded to spread all over the town of Runcorn.
If I remember correctly, the process worked by burning ethylene in a limited supply of air and then quenching it with naphtha. The similarities between the BASF process and the method for producing carbon black lead me to believe, that ICI’s process was probably producing a lot of carbon black.
Peter was working on an instrument that measured the quantity of acetylene in the off-gas from the burners and he succeeded, but unfortunately proved that the plant was going into explosive limits. For this reason, ICI shut their process, although BASF persevered.
Ethylene is a hydrocarbon which has the formula C2H4 or two carbon and four hydrogen atoms. So if you can get them to stop tightly holding hands with no oxygen around, the hydrogen will pair off as H2 and the carbon will exist as a lot of single C atoms or carbon black.
BASF and ICI were trying to produce acetylene or C2H2, where there is a powerful triple bond between the two carbon atoms. All that energy in the acetylene makes it useful for activities like welding.
Common Uses Of Carbon Black
The Wikipedia entry for carbon black, has this summary of its uses.
The most common use (70%) of carbon black is as a pigment and reinforcing phase in automobile tires. Carbon black also helps conduct heat away from the tread and belt area of the tire, reducing thermal damage and increasing tire life. Its low cost makes it a common addition to cathodes and anodes and is considered a safe replacement to lithium metal in lithium-ion batteries. About 20% of world production goes into belts, hoses, and other non-tire rubber goods. The remaining 10% use of carbon black comes from pigment in inks, coatings, and plastics, as well as being used as a conductive additive in lithium-ion batteries.
The entry then gives a list of other uses, some of which are still being developed.
Global Production Of Carbon Black
This paragraph is from the Wikipedia entry for carbon black.
Total production was around 8,100,000 metric tons (8,900,000 short tons) in 2006. Global consumption of carbon black, estimated at 13.2 million metric tons, valued at US$13.7 billion, in 2015, is expected to reach 13.9 million metric tons, valued at US$14.4 billion in 2016.
So we have the useful paradox, that we don’t want to emit more carbon dioxide, but extra carbon black could probably be usefully used.
Conclusion
Using the HiiROC process to extract hydrogen could even give us a biproduct ; carbon black, that has uses.
Ricardo’s Hydrogen Fuel Cell Module Celebrates Key Milestone To Successfully Generating Power
The title of this post, is the same as that of this press release from Ricardo.
This is the sub-heading.
Ricardo’s ground-breaking high-powered multi-stack hydrogen fuel cell module has reached a new milestone. Following its initial activation, the module is generating significant power output.
These are the first two paragraphs.
Initially developed to generate high energy output with zero-emissions for the maritime sector as part of the Sustainable Hydrogen Powered Shipping (sHYpS) project, the core technology is suitable for a wide range of high-power applications. Ricardo is already seeing strong interest from sectors including, stationary power, rail, off-highway and high-performance vehicles.
The module has already achieved Lloyd’s Register’s Approval in Principle for the system’s safety and certification approach for ocean-going applications. As well as the fuel cell power plant, the sHYpS project is developing a novel swappable liquid hydrogen storage solution, which can be adapted to multiple types of vessels and accelerate the achievement of the International Maritime Organisation’s decarbonisation targets.
Note.
- It seems to be a versatile fuel cell module.
- Ricardo also seem to have designed or sourced a novel refuelling solution.
- The power of the fuel cell module is not given.
I can see a lot of applications for a large fuel cell module.
The Anonymous Widower 