comment: >
  
  I guess it is to late to buy shares?
context: This has been around for years and the process is very well understood. The problem is cost, and so far no one has cracked that nut.
  This is just another vaporware scamstarter >
  
  Yep. Just a way to burn up grant money. >
  
  This is great... for youtube channels debunking this kind of stuff. >
  
  tldr: condensates water from the air by allowing it to.. condensate on a thin mesh, then it's converted through electrolysis which is not efficient (also stated in the article)
  let's say you could probably run your espresso machine from it.. maybe >
  
  Yeah, I hate to be the downer all the time, but this isn't as big of an invention as it's made out to be. The amount of hydrogen gained is low and the cost to build such a thing is high, and I mean production and matieral, not monetary. >
  
  EPFL scientists have developed a prototype of a solar-powered device capable of extracting water from the air and converting it into hydrogen.
  A team of engineers from the Swiss Federal Institute of Technology Lausanne (EPFL) drew on plant leaves as inspiration for the device, which they say can be easily manufactured and used on a large scale.
  When exposed to sunlight, the device absorbs water from the air and produces hydrogen. The hydrogen produced in this way could be used as fuel or for the long-term storage of solar energy, the authors wrote in the scientific journal “Advanced Materials” on Wednesday.
  The main innovation in the model are the novel electrodes, which have two key properties: they are porous, in order to maximise contact with water in the air, and they are transparent, in order to maximise solar radiation on the semiconductor coating.
  Modest yield
  In its current form, the prototype can already produce hydrogen when exposed to the sun’s rays. However, the scientists admit that efficiency is still “modest”.
  The next step is to optimise the prototype, including through determining the ideal fibre and pore size as well as the most suitable materials.
  To produce the electrodes, the researchers fused glass fibres together at high temperatures. The resulting platelets were coated with a thin layer of fluorine-reinforced tin oxide – a material known for its conductivity, robustness and ease of production. The plate was then given another coating: a thin film of light-absorbing semiconductor materials.