Hydrogen-fueled cars are the wave of the future and will be a big factor in our future energy consumption and transport systems. However, creating a hydrogen–fueled economy using efficient anode for water splitting requires some research and engineering know-how. This article presents a description of how an alternative anode for water splitting is used in this new hydrogen-fueled economy.
The most efficient anode for water splitting used in this study is based on platinum. It is referred to as a tandem anode because it consists of two metal anodes separated by a thin film of platinum. When voltage is applied to the hydrogen atom, it splits the molecules into hydrogen and oxygen. This method of electrolysis has some disadvantages.
One of these disadvantages is that hydrogen atoms do not always get split. For instance, in a process called electrolysis, the molecule of water is split into hydrogen and oxygen. Only the hydrogen is separated out of the water molecules. Oxygen and hydrogen are usually considered to be one single entity. So, using an anode for hydrogen-fueled economy using efficient anode for water splitting can actually interfere with the energy production and electrical power generation from chemical reaction at other times. So, an anode for hydrogen-fueled economy using efficient anode for water splitting needs to be very stable.
Another disadvantage of using an anode in hydrogen-fueled economy using efficient anode for water splitting is the price. Since the anode is the main part of the conversion process, it takes up more space. Also, the size and weight of the anode need to be very efficient. This means that it can only accommodate very small fuel cells. It also means that this type of anode is more expensive.
A third disadvantage of using an anode in hydrogen-fueled economy using efficient anode for water splitting is that it can be very dangerous if handled improperly. If the anode’s metallic part comes into contact with any metal surface, such as metal utensils or metal parts used for processing, it can become burned. In addition, if the anode’s surface comes into contact with water, it can cause a chemical reaction that causes damage to the anode and the process of hydrogen evolution. It can also corrode the metallic parts used for making the anode, which will allow water to leak into the anode when it is being converted.
An improved option for hydrogen-fueled economy using efficient anode for water splitting is to make use of semi-permeable materials, such as carbon nano tubes. Carbon nano tubes are hollow tubes of carbon and other elements that are hollow inside. They are very similar to sponge, except for the fact that they can be made into different thicknesses depending on the size and function of the applications they are to serve.
The hollow tubes of carbon nanotube have the potential to absorb and store hydrogen in them. This hydrogen could then be used for generating electricity or for the fuel cells in vehicles. The anode used for hydrogen-fueled economy using efficient anode for water splitting must have a semi-permeable anode, so that the hydrogen can be absorbed by the carbon nanotube. This absorption allows the hydrogen to be separated from the water molecules through electrochemical reactions. As hydrogen is needed to make up the hydrogen fuel in an automobile, this separation of hydrogen from the water makes hydrogen the purest and cleanest form of energy.
In the future, the use of such efficient anode for water splitting may replace the use of copper pipes and other metallic pipes with hollow tubes filled with water. The tubes would not only be useful for hydrogen-fueled economy using efficient anode for water splitting, but also for use in desalination of seawater, as well as for other water purification processes. In fact, it may be used to produce energy directly from water itself without depending on fossil fuels.
Provided by Antonio Westley
Disclaimer: This article is meant to be seen as an overview of this subject and not a reflection of viewpoints or opinions as nothing is definitive. So, make sure to do your research and feel free to use this information at your own discretion.
