1 and 3
i think you forgot to write down the symbols. http://en.wikipedia.org/wiki/Isotopes_of_potassium there is a table which shows how to write down the isotope
The Periodic Table of the Elements includes most of this information (but not the number of neutrons). The Chart of the Nuclides (or Table of the Isotopes) includes all of the information.
The chemical formula shows you this. The subscripted number next to each element shows how many atoms are present in a molecule or formula unit. If no number is shown, then only one atom of that element is present.
Bi shows the element bismuth. Atomic number if Bi is 83.
An element "I.D." is an element's atomic number. An element's atomic number shows how many electrons are in an atom of that element. An element's atomic number also determins their position on the Periodic Table.
Most naturally ocurring elements are a mixture of different isotopes. Look up boron for more details; I didn't look it up, but I can imagine that it consists of a mixture of isotopes that have an atomic mass of 10 and 11; or perhaps some other isotopes too. Different isotopes of an element have the same number of protons, but a different number of neutrons.
Chemical properties of a element is governed by ELECTRONIC CONFIGURATION of that element. As isotopes of same element have identical electronic configurations, their chemical properties are same.
i think you forgot to write down the symbols. http://en.wikipedia.org/wiki/Isotopes_of_potassium there is a table which shows how to write down the isotope
The Periodic Table of the Elements includes most of this information (but not the number of neutrons). The Chart of the Nuclides (or Table of the Isotopes) includes all of the information.
All forms of all atoms, both natural and man made, are isotopes. Different isotopes of the same element merely have more or less neutrons than the average atomic weight would indicate. The atomic number shows how many electrons are in the outer shell and also how many protons are in the nucleus of every isotope of any specific element.
The isotopes don't check the circulation. But the isotopes can be picked up on a scan, and if that scan shows isotopes going everywhere then that means that the blood is also going everywhere.
A person will not know which of the following illustrations of electrically charged pith ball shows the correct position of the pith balls without seeing the illustrations. It is important to include the illustrations as well.
it shows where to go
A snake like an python. Usually boron deficiency shows up as a brown rot in the centre of the gourd or root crop.
Each isotope of an element has a different Atomic Mass, so an average is taken of all the isotopes, but the average is weighted because the natural abundance (%) of each isotope is factored in. If hydrogen-1 is much more abundant than deuterium and tritium, then the weighted average will be closer to 1 than 2 or 3 but not a whole number. The following equation shows how percent abundance factors into the weighted average. (atomic mass A)(X% abundance) + (atomic mass B)(Y% abundance)...=(weighted average of all isotopes of the element)(100% abundance)
Phosphorus.
The chemical formula shows you this. The subscripted number next to each element shows how many atoms are present in a molecule or formula unit. If no number is shown, then only one atom of that element is present.