If you think the sea is the saltiest place on Earth, you are mostly right. Water makes up more than two-thirds of the surface of our planet, and 96% of the Earth's water is in the ocean. It contains thousands of billions of tons of dissolved salt. Around the poles, snow and ice dilute the salt, and closer to the equator, the water is saltier.

But there are places on our planet where you can find water that is much saltier than the sea. Few are more famous than the Dead Sea, located on the borders of Jordan and Israel. The water here is about 10 times saltier than sea water. However, it is only the fifth salt water body on Earth.

The waters of Don Juan Pond in Antarctica are 44% saline. Although the word "sea" is used loosely enough, it actually denotes a large amount of salt water, which is partially enclosed by land. The Dead Sea is completely closed, so it is actually a lake. Salinity is confusing.

The rocks at the water's edge sparkle with crystallized sodium chloride, where the sun evaporates the water. Its location on the edge of the Great Lakes is the key to its productivity. These are the remains of a prehistoric sea about 420 million years ago. Large deposits in places like Africa and Asia may not be as well known.

Europe also has an impressive mineral reserve. The area stretches from northern Britain, across the North Sea through the Netherlands, Denmark, Germany and Poland. People western world have been looking for these valuable salt deposits for hundreds of years. However, we may have missed some of the biggest ones.

Characteristics of the oceanic aquatic environment

Much of the attention over the centuries has been on identifying deposits in Europe and North America, therefore large deposits places like Africa and Asia may not be as famous, says Bohlen. The problem is that most of the information on the largest tanning bed is focused on mines.

What determines the salinity of water?

Perhaps unsurprisingly, it is Russia, the world's largest country by land mass, that is home to the world's largest "salt giants." These are huge, evaporated remnants of ancient seas locked underground. In general, we know a lot about the deposits of our planet. However, since the focus of research is often strongly linked to the economic value of salt, it is difficult to find a completely salty spot.

Large crystal deposits are known all over the world. On this moment The best we can do is say that the saltiest place on Earth is possibly a small pond in Antarctica or under a remote region of Russia. But it may be in another place that no one has thought of yet.

Properties and significance of sea water

Throughout the recorded history, the person really wanted to understand his environment and environment... Science was born from these observations of natural world... One of the most important issues raised about the world. Over time, many different methods of getting to know the Earth have been attempted, most of which have failed. One such unfortunate dating technique is to determine the current salt content of the ocean to create a timeline to determine how long it has been in existence. This method was introduced almost 300 years ago and it was researched by many prominent scientists for several hundred years until it got out of control due to obvious flaws in the method.

To understand how effective dating methods work, one must investigate invalid methods, such as sea salt watches, and know why and how they are ineffective. You also need to know the history of the method and how it came to be. One very handy aspect of this method is that measuring salt in the oceans is quite simple due to its abundance. If one cubic foot of seawater evaporates, this will yield approximately 2 pounds of salt. The relatively simple method of measuring salt, along with its abundance, makes it a very attractive dating method for some.

Before you start measuring the salinity of the oceans, you must first understand exactly why the oceans contain salt and how it gets there. When rain falls on the ground, it picks up small granules of dirt and minerals, some of which dissolve in the water itself. When water returns to the ocean, it contains a large volume of dissolved minerals, many of which are salt. What makes the ocean salty is that when water evaporates from the ocean, it leaves its supply of dissolved salt behind and becomes fresh.

Then, when the water condenses into rain, the cycle starts over and brings more salt to the oceans. The table below shows the cycle of how salt is transported from land to oceans. In theory, in a closed system, measuring the salt content of the water would work to calculate the approximate age. Imagine an initially fresh piece of water to which salt is continuously added. If a somewhat constant rate of salt accumulation is known, and the actual amount of salt in the water is known, then a simple algebraic calculation will give the age of that particular body of water.

This is what many people have tried to do over the years. Edmund Galli first turned to the method of studying ocean salinity in the astronomer Halley, who was the first real proponent of using a salt clock to calculate the age of the Earth. He was the first to notice that the oceans and some lakes are fed by streams and therefore constantly received more salt. However, Halley could not test his theories because he previously needed to know the salt content of the oceans in order to calculate the rate of accumulation.

Mellard Read reviewed this process and renamed it Chemical Denudation. Read came up with the calculation that calcium and magnesium sulfates would take 25 million years to reach their current concentrations in the oceans. Others have tried a method that gives similar dates. John Jolie calculated the age of 4 million years in Ten years later, Jolie revised her equations and calculated the age between 80 and 150 million years.

The dates calculated by everyone who tried this method were incorrect due to several fundamental flaws in the system. First of all, in order to use the salt clock as an actual clock, you must assume that the starting point will be 0% salinity. This, of course, could never be known, because no one was going to measure the salinity of the oceans when they were forming. In addition, people assumed that the ocean is an eternal reservoir, and when salt is dumped into the ocean, it remains there permanently.

Legends and scientific facts about the salinity of the seas

This assumption is incorrect, since it was later proven that the elements of the ocean are constantly being recycled and leaving the water. As plate tectonics shapes our Earth, sea layers rise and evaporate, leaving large salt deposits. The subduction of oceanic plates and melting to Earth, causing volcanoes to erupt, erupt material containing salt, which turns into earth, which then begins the process over and over again.

The earth, including the salt in the ocean, is in a constant state of flow on a very large cycle. In fact, the amount of salt lost from the ocean and the amount it receives are about the same. This means that the salinity of the World Ocean does not gradually increase or even changes greatly, but is actually in a state of equilibrium. Another fundamental disadvantage of this system is that the rates of erosion, dissolution, precipitation and runoff cannot be measured over a large amount of geological time.

They just vary too much to give any constant. Also, the fact that different elements tend to spend different amounts of time in the ocean adds to the computational confusion. For a process to be considered a good natural hour, it must contain the following: a known initial condition, an irreversible process, a uniform rate, and an end condition. With a salt clock, the initial condition is unknown. The salt accumulation process has been shown to be reversible and permanent.

There is also no uniform rate of salt accumulation. The only criterion is the known end condition. Because of these factors, the salt clock obviously cannot be used as a natural clock for calculating any type of age. Despite the well-known scientific reasons why this method cannot be used as an accurate natural clock, ocean salinity measurements have recently been used by Earth's young creationists as supposed proof that the Earth is not actually billions of years old.

On the Answers website in Genesis, a young earth proponent actually explains that the clock is salt as a valid measuring device. According to the website, many processes bring salt into the sea and they do not leave the sea easily. Thus, the salinity is steadily increasing. Since we can determine how much salt is in the sea, as well as the rate at which salts enter and leave the sea, we must be able to calculate the maximum age for the sea. What's even more interesting about this featured article is that the author even cites the work of John Jolie and Edmund Haley in his references.

The work of Jolie and Haley, vital to tracking the development of scientific thought in the Earth Age, is in no way flowing or uplifting to this day. Still trying to use a failed method like the salt watch, as a legitimate science, takes a step back in science. It would be tantamount to firing all modern medicine and returning to bleeding people for just about any ailment they could reduce.

This method of acquaintance with the earth, no matter how lagging it may seem by today's standards, is nevertheless an important step in the history of science. If it were not for trial and error like this method, it would have been impossible to arrive at the sound scientific methods and methods used today. This method is important because it showed critical thinking on the part of a person, because he tried to use logic to determine facts about his environment. The spirit or motive of those who use the nightingale is as important as any other.