It is true. The chemical properties of atoms are primarily based on the electron configuration, particularly the number of electrons in the outer or valence shell, while the nuclear properties of atoms are primarily based on the proton/neutron configuration in the nucleus.
They have all the chemical, physical, nuclear properties identical. This is not the case for isotopes.
Yes, hassium is a synthetic element with no stable isotopes. It is highly radioactive, and its physical properties have been difficult to study in detail due to its short half-life. Its properties are largely predicted by its position in the periodic table.
No, absolutely not. There are much smaller particles, first Electrons (which are part of reactions), Then Quarks that neutrons and protons are made of (and are part of reactions), and much, much smaller particles after that also are involved in chemical reactions.
Nuclear chemistry is the branch of chemistry that studies the chemical and physical properties of elements as influenced by changes in the structure of atomic nuclei. It involves processes such as radioactive decay, nuclear reactions, and the use of radioactive isotopes in various applications such as medicine, industry, and research.
The addition of neutrons to the nucleus of an atom creates a new isotope of the element. It changes the nuclear properties of the atom, but has no effect on its chemical properties. Chemical reactions occur as the result of interactions between the electrons of atoms, not their nucleii so, for example, Carbon-12 and Carbon 14 will react chemically in exactly the same ways. The resulting compounds will have identical chemical properties but different molecular weights.
nuclear waste
The both have 92 protons in their nucleus and the same chemical properties. Their NUCLEAR properties are different.
The effective nuclear charge of oxygen affects its chemical properties by influencing the attraction between the nucleus and the electrons. This can impact factors such as atomic size, ionization energy, and electron affinity, which in turn affect how oxygen interacts with other elements in chemical reactions.
They have all the chemical, physical, nuclear properties identical. This is not the case for isotopes.
The effective nuclear charge of aluminum plays a significant role in determining its chemical properties because it affects the attraction between the positively charged nucleus and the negatively charged electrons. This attraction influences the ability of aluminum to form chemical bonds with other elements, impacting its reactivity and behavior in chemical reactions.
Plutonium is a chemical element that is similar to uranium in terms of its radioactive properties and use in nuclear reactions. Both elements can undergo fission reactions and are used in nuclear power generation and nuclear weapons.
The effective nuclear charge of beryllium plays a significant role in determining its chemical properties because it affects the attraction between the nucleus and the outer electrons. This attraction influences the atom's ability to form bonds with other atoms, impacting its reactivity and overall behavior in chemical reactions.
Yes, it is true for all chemical elements. But attention: isotopes of an element have different nuclear properties.
It doesn't. The nuclear/chemical reaction that powers the other stars is entirely independent of what our sun is doing.
The nuclear charge of silicon is 14. This means that a silicon atom contains 14 protons in its nucleus, which determines its position on the periodic table and its chemical properties.
Yes, chemical properties can be determined only experimentally, as a consequence of chemical reactions. But, today chemists can made some predictions about chemical properties of a substance on the basis of existing data about chemical and physical properties.
Yes, hassium is a synthetic element with no stable isotopes. It is highly radioactive, and its physical properties have been difficult to study in detail due to its short half-life. Its properties are largely predicted by its position in the periodic table.