It is true that the hydrogen molecule is one of the smallest in the universe. In current certified containers, the leakage is below 1 ppm (parts per million), meaning that the actual leakage is essentially below the limit of measurability.

Hydrogen can be perceived as any other technical gas. To ensure safety, we need sensors to monitor its leakage. But this is the same process that we have known for years with natural gas, for example. If handled correctly, hydrogen is no more dangerous than other industrial gases.

The electrolyser uses approximately 9 litres of water to produce 1 kilogram of hydrogen.

Hydrogen oxidation occurs in the fuel cell, which could be chemically described as combustion. However, it is not combustion as we know it from, for example, a gas boiler. Hydrogen in a fuel cell does not burn with a flame, so the only emission is water and water vapour. Neither nitrogen oxides nor carbon monoxide are produced in the fuel cell.

It is true that the hydrogen molecule is one of the smallest in the universe. In current certified containers, the leakage is below 1 ppm (parts per million), meaning that the actual leakage is essentially below the limit of measurability.

Hydrogen can be perceived as any other technical gas. To ensure safety, we need sensors to monitor its leakage. But this is the same process that we have known for years with natural gas, for example. If handled correctly, hydrogen is no more dangerous than other industrial gases.

The electrolyser uses approximately 9 litres of water to produce 1 kilogram of hydrogen.

Hydrogen oxidation occurs in the fuel cell, which could be chemically described as combustion. However, it is not combustion as we know it from, for example, a gas boiler. Hydrogen in a fuel cell does not burn with a flame, so the only emission is water and water vapour. Neither nitrogen oxides nor carbon monoxide are produced in the fuel cell.