There is nothing new in the world; what has existed will live again in one way or another. People write books on this principle because it is universally applicable. However, some things have appeared in our past that have not yet been discovered and noticed by others. One of these things is the Born Haber Cycle (BH cycle). The BH cycle was first explained by Fritz Haber, who introduced it to chemists in 1909 as “an example of a closed-system chemical reaction that could be made to release energy.”
What is the Born Haber Cycle?
The BH cycle is a process that occurs within a vessel that contains some chemicals and a catalyst. In this system, the reactants combine, with the motivation to produce products. These products then leave the ship to return to its original state (a state of equilibrium). In other words, the BH cycle is a cyclic process that continuously repeats itself, resulting in some energy being given out as waste heat.
The main components of the BH cycle:
A Vessel: The vessel serves a vital role in carrying out the chemical reactions. This is because all of the responses within this cycle occur there. The ship contains water, the catalyst, and the reactants.
A Catalyst: The catalyst is a compound that speeds up the reactions within the vessel. It does this by supplying hydrogen to make one of the reactants burn at a higher temperature and then make another reactant change state (i.e. hydrolysis or condensation). The catalyst can be something as simple as some sodium chloride, but most are metals such as iron, nickel, or platinum. Catalysts are expensive and difficult to find in most cases, so people do not use them very much.
Reactants: The reactants are mixed chemicals to get a reaction started. The reactants are primarily hydrochloric acid, concentrated sulfuric acid, sodium chloride, and water within the BH cycle.
A Heat source: A heat source is needed to get the healing process started. Various heat sources can be used as examples, such as burning coal in a furnace or by using an electric stovetop for cooking. These examples will just about do it for most people who want to figure out how the BH cycle works.
Significance of Born Haber Cycle:
There are a few processes that scientists have discovered in the scientific world. However, most of these processes have been obscured even though they should be famous in history. One of these processes is the BH cycle. This process has not been discovered more widely because it is seen as a closed system. This means that nobody knows what could be possible to do with this process since it has already been created by Haber a long time ago. This makes people wonder what would happen if you took one of your favourite gas masks and connected it to chemicals that are supposed to react together within this system.
Born Haber Cycle Examples
It is best to start with examples so that people can begin to understand how this system works. Therefore, there are a few examples of the BH cycle, which are listed below:
Nail Polish: This is one of the most famous examples which gives a better understanding of the BH cycle. Putting your finger in nail polish assumes that the process has stopped and that you got your desired colour for your fingernails. However, in reality, it has not stopped because there are tiny droplets of water mixed into the nail polish, which continue to react with each other.
- This could be seen as an example of a system at equilibrium where some extra heat gets added to get things going again.
Water heating: This is another example of the BH cycle. When you put a glass of water on top of an electric stove, you will see bubbles forming on the inside of the mirror and steam coming out. The process you see is hydrogen (water heated up) and oxygen (release of smoke).
- This could also be an example of a system not at equilibrium because it continuously consumes the reactants to get something done for a more extended period.
Conclusion
These examples should give you a better understanding of the BH cycle and how it works. It would be best to try and experiment with your models to get a better idea of how the Born Haber Cycle works. This is useful for those who want to know about chemistry, physics, or any other scientific field of study.