In windy regions like the north of Europe, the challenge is to store all the green windmill electricity.
Of course the large amounts of electricity can be stored in batteries but Denmark, the Netherlands and Germany are investing in hydrogen to store the energy.
Transport is one of the largest emitters of greenhouse gases (GHG) and thus the biggest contributor to climate change. Light battery electric vehicles are widely seen as the fastest and most cost effective route towards decarbonisation.
For heavy duty vehicle it seems to be less easy.
Transport & Environment Germany has been working on a roadmap how Europe could achieve zero GHG road freight and buses by 2050. Let’s have a look at the German recommendations: Read More
In 2018 VoltaChem will demonstrate that the process can also be applied on an industrial scale.
Experiments have already been experimented with the conversion of CO2 into formic acid. The VoltaChem innovation program wants to scale the process to an industrial application.
Professor Dr. Wim Turkenburg is convinced that a “false mistake” is being made.
If you can prove something like a hydrogen society can work in a city like Tokyo, then it’s a matter of how do they scale it, how do the Japanese ensure that all the ancillary consequences have been addressed, and you only really do this by testing it out.
Japan is moving faster than expected toward an hydrogen energy future. Prime Minister Abe has become a vocal advocate for hydrogen – both to stimulate developments in technology and to help the resource-poor nation lower greenhouse gases. With Japan relying more on fossil fuels since the shuttering of most of its nuclear reactors after the Fukushima disaster almost six years ago, it’s a push that’s gained more urgency.
Toyota is at the forefront of Japan’s efforts to use hydrogen and fuel cells to power cars, heat homes and keep factories running. Other companies pursuing the technology include Panasonic Corp, Toshiba Corp and JX Nippon Oil & Energy Corp. Read More
If this large-scale storage of renewable energy in liquid ammonia succeeds, communities can cover long low wind and solar energy periods
The Battolyser, which will be used as a super battery in a gas power plant, is becoming a reality.
For the first time, TU Delft researchers led by Prof. Fokko Mulder have produced an integrated battery electrolysis system – known as a ‘battolyser’ – that can not only store or supply electricity efficiently as a battery but can also split water into hydrogen and oxygen using electrolysis. Read More
In the body of the study it becomes clear that FCVs do not beat internal combustion engines (ICEs) by much in equivalent fuel economy, And they are not much better in greenhouse gas emissions either, particularly in the liquid hydrogen versions, because of the energy required to transport and compress the hydrogen.
Hydrogen fuel cell cars appear to be making a comeback. But is this real? The comparison in question includes discussion of:
the wider process behind producing hydrogen fuel
the production itself
the compression/storage
the transportation of the fuel
associated factors
The future is a bit cloudy for hydrogen fuel cells (HFC), as electric vehicles have developed quickly and taken significant market share. Read More
Important additional returns for society can be that less investment is required in offshore power grid to the extent that existing gas grid can be used to get offshore wind energy onshore.
An interesting study of the Energy Delta Institute remained unnoticed for two months: it could be financially attractive to produce hydrogen at unemployed oil platforms in the North Sea with wind energy that is extracted at sea nearby.
In a report launched November 2015, EDI presented the findings of a study on a simulated wind-and-gas-energy-conversion pilot project in the North Sea. Read More
Fusion proces: Because of a phenomenon known as quantum tunneling, the hydrogen atoms smash into each other and fuse into helium.
Is Fusion the answer for the new energy world? Scientists create hydrogen plasma, what the sun is made of.
Max Planck researchers finally succeeded in building this breakthrough reactor. And for the first time, the scientists have successfully created hydrogen plasma, the key component to nuclear fusion, and held it in a contained environment. Read More
If this large-scale storage of renewable energy in liquid ammonia succeeds, communities can cover long low wind and solar energy periods
Is liquid Ammonia the solution for energy storage?
Big energy company Nuon, together with the Technical University Delft started a pilot project in which renewable energy will be stored in liquid ammonia. Read More
in 2014, companies in the electric transportation sector accounted for 820 million euro.
In 2014, the number of employments in electric vehicles increased by 25% to 3,200 jobs in the Netherlands.
Young entrepreneurs
Dutch companies in circular electric transport are doing a great job. National and international. Important, because they do not only contribute to our economy but they also are part of the solution to the global energy and climate issues. Read More
Dutch students Start Up ‘Team FAST’ is building world’s first car on formic acid. For this high potential technology, the team was honored with the Brains Award 2015.
After Hydrogen, it seems to be a high potential one.
Formic Acid is produced by using electricity. Wind farms or solar panels supply the power that is needed for the production of Formic Acid, thus it is completely carbon neutral. Read More
Future gas sourcing will have an impact on the supply of gas and together with the two key uncertainties for gas demand, will indicate the future gas transport needs.
The GasAtlas of Europe provides an overview of the evolution of demand for, and supply of gas in Europe in the next years. The ‘GasAtlas of Europe‘ is published by the GasUnie. Read More
Driving on hydrogen seems to be the future. But the shown hydrogen cars ain’t completely green. Still Toyota and Hyundai have made a valiant attempt. Last year, Hyundai presented an existing SUV that had been converted to a hydrogen car. Toyota introduced the new Mirai, designed with a fuel cell.
the Power-to-Gas (P2G) approach can facilitate a transition from natural gas to a ‘green’ mixed gas by making use of both of the existing energy grids on a global scale
Power-to-Gas is the process of converting surplus renewable energy into hydrogen gas by rapid response electrolysis and its subsequent injection into the gas distribution network. One of the most promising energy storage systems to storage renewables into the existing EU gas infrastructure.
The hydrogen produced is injected into the natural gas system to displace natural gas, so reducing greenhouse gas emissions and reliance upon fuel imports.
If the power is derived mainly from renewable power sources, only low-carbon hydrogen will be produced. Thereby the Power-to-Gas (P2G) approach can facilitate a transition from natural gas to a ‘green’ mixed gas by making use of both of the existing energy grids on a global scale.
London Mayer Boris Johnson, made a deal with Toyota, bringing 12 hydrogen cars to the UK Capital by the end of 2015
Boris Johnson, mayor of London, announced that some of the world’s most advanced new hydrogen cars will come to London. He is promoting the cleanest, greenest, energy technology for the future of transport and infrastructure in the capital.
Johnson: “It’s tremendous to drive the hydrogen powered Toyota.”
Toyota made a deal to deliver 12 brand new Mirai hydrogen powered vehicles to London. Four will be taken on by Transport for London to assist with essential engineering and maintenance work carried out between bus stops and Tube stations.
The Mirai is the first hydrogen fuel cell sedan vehicle to be commercially mass produced. By the end of 2015,all 12 of the vehicles will be driving in London, used by private hire fleets and green minded businesses.
Fuel cells (and perhaps other technologies which use hydrogen) fill certain niches in which batteries cannot compete favorably and the opposite is also true.
When I first realized that the world is transitioning from fossil fuels to renewable energy, I fell in love with hydrogen technologies.
Splitting the most naturally abundant compound in the world, H2O, would be the ideal thing to fuel the future. However, there are really dangerous details to how this water must be split and the energy requirement is quite ridiculous.
The plane reduces the noise of the sonic boom — a loud bang caused by shockwaves created by an object moving faster than the speed of sound. “This noise has been the main limit, if not the only one, preventing the opening of lines other than transatlantic ones for the Concorde aircraft,” the patent says. The plane does that by being “near-vertical,” like a rocket, while ramping up to supersonic speed and its cruising altitude of 30,000 to 35,000 meters — 20 kilometers higher than conventional commercial aircraft.
Airbus has received a patent for a design of a supersonic passenger plane on hydrogen. Thanks to ultra-modern engines, the airplane can achieve speeds over 5,500 mph.
The granted patent discloses an apparatus which is provided with delta-shaped wings, provided with three different types of engines:
turbojets for taxiing, takeoff and landing
a rocket motor for rapid acceleration
ramjets for high-altitude cruising
The plane will be fueled by hydrogen and liquid oxygen. Read More
Siemens delivered the elektrolyse installation. It uses Proton Exchange Membranes (PEM)
German technology companies Siemens and Linde have taken 6 MW electrolysis plant into operation. The plant converts renewable energy into hydrogen (split water into hydrogen and oxygen).
The pilot plant at the Energy Park Mainz costs 17 million euro’s. Read More
Solar needles of gallium phosphide, can cleave water, to hydrogen gas and oxygen gas.
It seems pure alchemy, but it’s solid science:
Researchers managed to create fuel directly from sunlight and water. In an article in Nature Communications last Friday, they presented nanowires, pulling hydrogen from water molecules. Read More