Computers may be invaluable tools to help mathematicians solve problems but they can also play their own role in the discovery and proof of mathematical theorems.

Perhaps the first significant effect by computers arrived 40 decades ago, with proof of the four color theorem the statement that each map with certain conditions that make sense can be colored using only four different colors.

This was originally shown by the computer in 1976, although a defect was later found, and the evidence remained incomplete until 1995.

Although Hales released a proof in 2003, some mathematicians were not satisfied because the evidence was accompanied by 2 gigabytes of computer output a very large number at the time, and a number of calculations could not be certified.

As a reaction, Hales made formal evidence that was verified by computers in 2014.

## New Kid On The Block

The latest progress along this point is this month’s statement in Nature of PC evidence for what is called the Boolean Pythagorean triples problem. For integers from one to 7,825, this cannot be done.

Even for small integers, it is difficult to find non-monochrome coloring. For example, when five are reddish, between 12 or 13 must be blue, because 52 + 122 = 132 and between three or four must also be blue, because 32 + 42 = 52. Each choice has many limitations.

As it happens, the number of potential techniques for coloring integers from one to 7,825 is colossal more than 102,300 (followed by 2,300 zeros). This number is far greater than the range of elementary particles in the observable universe, which can be only 1085.

However, investigators have managed to reduce this amount by utilizing various symmetries and ownership of the concept of quantity, to only one billion dollars.

The PC is run to analyze every one of a trillion examples that is needed twice on 800 Stampede University of Texas supercomputer chips.

While direct application of the results is not possible, the ability to overcome difficult coloring problems will certainly have consequences for coding and also for safety.

The Texas calculation, which we quoted about 1019 arithmetic operations, is still not the largest mathematical calculation. How does one rate this type of substantial output.

It should be, that the Pythagorean triple Boolean application creates a solution shown in the figure, above that can be assessed by a much smaller application.

It is often rather difficult to find 2 variables a and b, but once found, it is a trivial job to multiply them together and confirm that they are functioning.

## Are Mathematicians Out Of Date

Mathematicians, like many other specialists, must largely adopt calculations as a new way of mathematical study, a development called experimental science, which includes far-reaching consequences.

It is best described as a style of study that uses computers as labs, in the exact same sense that a physicist, chemist, biologist or scientist conducts experiments, for example, gain insight and instincts, evaluate and conjecture allegations, and confirm the results shown in the traditional way.

We have written about this at some point elsewhere visit our books and newspapers for detailed technical information.

In a certain sense, there is nothing fundamentally new in the experimental procedure of mathematical research. From the next century BC, the extraordinary Greek mathematician.

Computer based experimental mathematics certainly has technology on its side. With the passage of years, improvements in computer hardware along with Moore’s Law, along with predictive computing software packages such as Maple, Mathematica, Sage and many others became stronger.

Already these programs are strong enough to solve almost all equations, derivatives, integral or alternative work in undergraduate mathematics.

So, while ordinary human based signs continue to be important, PC leads the way in helping mathematicians to find new theorems and map the path to the right proof.

What’s more, an individual can state that in some cases calculations are more persuasive than human-based evidence. However, human affirmation is prone to mistakes, supervision, and dependence on past results by others who may be unhealthy. This was corrected afterwards.

To do so, they calculated somewhat larger than 10 trillion base-16 digits, they then assessed their calculations by calculating the portion of the base-16 digit close to conclusions with very different algorithms, and comparing the results.

So is it more reliable, a proven theorem of countless human web pages, which only a small number of different mathematicians have read and confirmed in detail, or the results of Yee-Kondo let’s face it, calculations may be more reliable than frequent evidence.

## What Will Happen In The Future?

There is every sign that research mathematicians will continue to work in respect of symbiosis with computers in the near future.

Indeed, since this connection and computer technology are older, mathematicians will grow more comfortable leaving certain pieces of evidence to the computer.

This question was addressed at a June 2014 panel discussion of five-star Mathematics Prize Recipients for mathematics.