it depends because isotopes have different nucleon numbers but their atomic number stays the same.
The nucleon numbers 35 and 12 represent the relative isotopic mass of the isotopes. So, chlorine-35 is about three times heavier compared to carbon-12. You can see all the (average) atomic masses of the elements in the periodic table.
Those portions typically include headers, footers, margins, page numbers, and any additional elements like logos or decorations. They frame the main content and provide context or additional information.
The graph of mass per nucleon vs atomic mass number typically shows an increasing trend up to iron (Fe-56), where nuclear binding energy is maximized. Nuclei with atomic numbers lower than iron release energy in fusion, while those higher than iron release energy in fission. Beyond iron, the graph slopes downward due to the increasing energy required to overcome the electrostatic repulsion of protons.
Elements with atomic numbers 89-94: natural elements.Elements with atomic numbers 95-98: artificial elements but they are also discoverd in nature as ultratraces.Elements with atomic numbers 99-103: artificial elements.
It still has 7 protons because isotopes of elements have variable NEUTRON numbers, not nucleon (atomic mass) or proton numbers.
No need to add. Use the elemnts mass number, which is the number of protons plus the number of neutrons
it depends because isotopes have different nucleon numbers but their atomic number stays the same.
it depends because isotopes have different nucleon numbers but their atomic number stays the same.
The numbers 16 and 18 is their nucleon number. Hence, they will have different masses since they have different number of neutrons.
The nucleon numbers 35 and 12 represent the relative isotopic mass of the isotopes. So, chlorine-35 is about three times heavier compared to carbon-12. You can see all the (average) atomic masses of the elements in the periodic table.
The binding energy per nucleon is a measure of how tightly a nucleus is held together. Nuclei with higher binding energy per nucleon are more stable as they require more energy to break apart. Therefore, nuclei with a higher binding energy per nucleon are more stable and tend to resist undergoing nuclear reactions.
No, not all elements in a group have the same oxidation numbers. The oxidation number of an element can vary depending on the compound it is a part of and the specific chemical bonds it forms. Group trends can provide some guidance on common oxidation states, but there are exceptions.
Those portions typically include headers, footers, margins, page numbers, and any additional elements like logos or decorations. They frame the main content and provide context or additional information.
two numbers with a product of 1 are called elements
What numbers are you talking about? This question needs additional information.
The graph of mass per nucleon vs atomic mass number typically shows an increasing trend up to iron (Fe-56), where nuclear binding energy is maximized. Nuclei with atomic numbers lower than iron release energy in fusion, while those higher than iron release energy in fission. Beyond iron, the graph slopes downward due to the increasing energy required to overcome the electrostatic repulsion of protons.