Quantum Table of Chemical Elements PDF 14: A Comprehensive Guide for Chemistry Students

If you are studying chemistry, you might have heard of the quantum table of chemical elements. This is a table that shows the distribution of electrons in the orbitals of each element, according to the quantum numbers n, l, m and s. The quantum table of chemical elements is also known as the tabla cuantica de los elementos quimicos in Spanish.

In this article, we will explain what the quantum table of chemical elements is, how it is different from the periodic table of elements, and how you can download the PDF 14 version for free.

What is the quantum table of chemical elements?

The quantum table of chemical elements is a way of representing the electronic configuration of each element, based on the concept of region space energy of probabilistic electronic manifestation (reempe). This concept was developed by Joze Ramirres Gutirez, a Peruvian chemist and physicist, who published his work in 2016.

The reempe concept states that each electron in an atom occupies a region of space that has a certain energy level and a certain probability of finding the electron. The region of space is determined by four quantum numbers: n, l, m and s. These quantum numbers describe the size, shape, orientation and spin of the orbital where the electron is located.

The quantum table of chemical elements shows the number of electrons in each orbital for each element, using a notation that indicates the value of n and l for each orbital, and the number of electrons with positive or negative spin for each value of m. For example, the electronic configuration of hydrogen is 1° e1 + -, which means that hydrogen has one electron in the orbital with n = 1 and l = 0 (the 1s orbital), and that electron has positive spin (+) or negative spin (-).

How is the quantum table of chemical elements different from the periodic table of elements?

The periodic table of elements is a more familiar way of organizing the elements based on their atomic number (the number of protons in the nucleus) and their chemical properties. The periodic table arranges the elements in rows called periods and columns called groups or families. The elements in the same group have similar chemical behavior because they have the same number of valence electrons (the electrons in the outermost shell).

The quantum table of chemical elements does not follow the same order as the periodic table. Instead, it groups the elements according to their electronic configuration, which reflects their quantum behavior. The quantum table arranges the elements in rows called levels and columns called classes. The levels correspond to the value of n for each orbital, and the classes correspond to the value of l for each orbital. The elements in the same class have similar quantum properties because they have electrons in orbitals with the same shape.

The quantum table also shows more information about the distribution of electrons than the periodic table. The periodic table only indicates the number of electrons in each shell using a superscript after the symbol of each element. For example, helium has two electrons in its first shell, so its notation is He. The quantum table shows how many electrons are in each orbital and their spin using a more detailed notation. For example, helium has two electrons with opposite spin in its 1s orbital, so its notation is 1° e2 + -.

How can you download the quantum table of chemical elements PDF 14 for free?

If you are interested in learning more about the quantum table of chemical elements and how to use it, you can download a PDF version for free from Scribd. This PDF file contains two pages: one with the quantum table and one with an explanation of how to read it. The PDF file is available in Spanish only.

To download the PDF file, you need to create a free account on Scribd or log in with your Facebook or Google account. Then you can click on the download button on the top right corner of the document page. You can also read it online or print it if you prefer.

What are the advantages of using the quantum table of chemical elements?

The quantum table of chemical elements is a useful tool for chemistry students and teachers who want to understand the quantum behavior of the elements and their interactions. The quantum table can help you to:

Visualize the distribution of electrons in each orbital and their spin.
Predict the magnetic properties of the elements based on their spin.
Explain the periodic trends of the elements based on their electronic configuration.
Identify the elements that belong to the rare earths and the transition metals based on their classes.
Compare the quantum properties of the elements with their chemical properties.

The quantum table of chemical elements can also help you to appreciate the beauty and complexity of nature at the atomic level. The quantum table shows how the elements are organized according to simple rules that govern their electronic structure. The quantum table also reveals how the elements are related to each other and how they form different compounds and molecules.

Conclusion

The quantum table of chemical elements is a novel way of representing the electronic configuration of each element, based on the concept of region space energy of probabilistic electronic manifestation. The quantum table shows more information about the distribution of electrons in each orbital and their spin than the periodic table. The quantum table also groups the elements according to their quantum properties rather than their chemical properties. The quantum table of chemical elements is a valuable resource for chemistry students and teachers who want to learn more about the quantum behavior of the elements and their interactions. You can download the PDF 14 version of the quantum table for free from Scribd.

How to use the quantum table of chemical elements?

To use the quantum table of chemical elements, you need to understand the notation and the symbols that are used in the table. Here are some tips to help you read the table:

The table has 10 levels (rows) and 8 classes (columns). The levels correspond to the value of n for each orbital, and the classes correspond to the value of l for each orbital.
The elements are arranged in ascending order of atomic number (the number of protons in the nucleus) from left to right and from top to bottom.
The symbol of each element is written in a box that indicates its electronic configuration. The box has four parts: the level, the class, the number of electrons and the spin.
The level is written as a superscript before the symbol of the element. For example, 1° H means that hydrogen is in the first level.
The class is written as a subscript after the symbol of the element. For example, H 0 means that hydrogen is in the zero class.
The number of electrons is written as a superscript after the class. For example, H 0 e1 means that hydrogen has one electron.
The spin is written as a plus (+) or a minus (-) sign after the number of electrons. The plus sign means that the electron has positive spin, and the minus sign means that the electron has negative spin. For example, H 0 e1 + – means that hydrogen has one electron with positive or negative spin.
If an element has more than one electron in an orbital, the number of electrons with positive or negative spin is written separately for each value of m. For example, He 0 e2 + – means that helium has two electrons in its 1s orbital, one with positive spin and one with negative spin.

Examples of using the quantum table of chemical elements

Here are some examples of how you can use the quantum table of chemical elements to learn more about the elements and their quantum properties:

If you want to know how many electrons are in each shell of an element, you can add up the number of electrons in each level. For example, carbon has six electrons: two in its first shell (1° e2 + -) and four in its second shell (2° e4 + + – -).
If you want to know how many valence electrons are in an element, you can look at the highest level that has electrons. For example, carbon has four valence electrons: four in its second shell (2° e4 + + – -).
If you want to know if an element is magnetic or not, you can look at the spin of its electrons. If an element has unpaired electrons (electrons with different spin), it is magnetic. If an element has paired electrons (electrons with opposite spin), it is not magnetic. For example, carbon is not magnetic because it has paired electrons (2° e4 + + – -).
If you want to know if an element belongs to the rare earths or the transition metals, you can look at its class. The rare earths are the elements that have electrons in the f orbitals (the 3 class). The transition metals are the elements that have electrons in the d orbitals (the 2 class). For example, lanthanum is a rare earth because it has one electron in its 3 class (6° e1 + -).
If you want to know if an element is a metal or a nonmetal, you can look at its position in the table. The metals are usually on the left side of the table, and the nonmetals are usually on the right side of the table. For example, sodium is a metal because it is on the left side of the table (3° e1 + -).

How to compare the quantum table of chemical elements with the periodic table of elements?

As we have seen, the quantum table of chemical elements and the periodic table of elements are two different ways of organizing the elements based on their electronic configuration and their properties. However, there are some similarities and differences between them that you should know.

One similarity is that both tables arrange the elements in ascending order of atomic number from left to right and from top to bottom. This means that the elements in the same row or column have similar atomic structure and number of electrons.

Another similarity is that both tables show some periodic trends of the elements, such as the variation of atomic size, ionization energy and electronegativity. These trends are related to the electronic configuration and the effective nuclear charge (the attraction between the nucleus and the valence electrons) of each element.

One difference is that the quantum table of chemical elements does not follow the same order as the periodic table of elements. The quantum table groups the elements according to their quantum properties rather than their chemical properties. This means that some elements that are close together in the periodic table are far apart in the quantum table, and vice versa.

Another difference is that the quantum table of chemical elements shows more information about the distribution of electrons in each orbital and their spin than the periodic table of elements. The quantum table uses a more detailed notation that indicates the value of n, l, m and s for each orbital, and the number of electrons with positive or negative spin for each value of m. The periodic table only indicates the number of electrons in each shell using a superscript after the symbol of each element.

A third difference is that the quantum table of chemical elements has 10 levels and 8 classes, while the periodic table of elements has 7 periods and 18 groups. The levels correspond to the value of n for each orbital, and the classes correspond to the value of l for each orbital. The periods correspond to the number of shells in each element, and the groups correspond to the number of valence electrons in each element.

Conclusion

The quantum table of chemical elements is a novel way of representing the electronic configuration of each element, based on the concept of region space energy of probabilistic electronic manifestation. The quantum table shows more information about the distribution of electrons in each orbital and their spin than the periodic table of elements. The quantum table also groups the elements according to their quantum properties rather than their chemical properties. The quantum table of chemical elements is a valuable resource for chemistry students and teachers who want to learn more about the quantum behavior of the elements and their interactions. You can download the PDF 14 version of the quantum table for free from Scribd.

Tabla Cuantica De Los Elementos Quimicos Pdf 14

Quantum Table of Chemical Elements PDF 14: A Comprehensive Guide for Chemistry Students

What is the quantum table of chemical elements?

How is the quantum table of chemical elements different from the periodic table of elements?

How can you download the quantum table of chemical elements PDF 14 for free?

What are the advantages of using the quantum table of chemical elements?

Conclusion

How to use the quantum table of chemical elements?

Examples of using the quantum table of chemical elements

How to compare the quantum table of chemical elements with the periodic table of elements?

Conclusion

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