When both the force and the reaction rates are equal
If we were to see the bottom denominator as a bigger number, and also seeing the top numerator smaller then the denominator, this this would be a bigger fraction and also vice-versa. Lets first consider what would be (0.7) as a fraction. .7 would be noticed as 70%. But as a fraction, this would then be 7/10. Therefore, we would then have a newer order. And also for .6, this would be the same case.
By reforming this, it would then be the following:
7/10, 1/8, 1/2, 1/6, 4/5.
Your answer would then be below.
1/8 would be the smallest.
Then 1/6.
Then afterward, 1/2 would then be half.
Then the next ones would then be the fractions that are almost finished.
Then, 7/10, and therefore 4/5 as the last one.
Those would be the order from least to greatest.
1 — Element D and A ( Which are Sodium and aluminium )
2 — ( 2 + 8 + 3 = 13 electrons total ) Element A Because it's atomic number is 13.
3 — Element E Is stable. ( Which is Argon )
( Note, Elements which has 8 election on its outermost cell is stable. ( Helium is exception which is a noble gas but have 2 electrons in outermost cell )
4 — Element F , which is hydrogen. ( Hydrogen is the only element to not have any neutron )
5 — Element D ( Which is sodium )
6 — The element F ( Which is hydrogen ) Don't contain any neutron.
________________________________
Option B, They cannot be separated by using physical properties
I'll go over why the other three options are wrong.
Option A - Boiling water would break the Intermolecular Forces between molecules (Essentially, the force that keeps water molecules stuck together will break, not the force that holds the atoms together)
Option C- Water isn't a mixture (Assuming that it's distilled), and so filtering it would do absolutely nothing.
Option D - There aren't any metallic bonds in water, only polar covalent bonds.
Thus, the only answer left is Option B.
Let me know if you need me to explain anything I mentioned here.
-T.B.
Answer:
The evolutionary process at work is best described by option <em>B. gene flow</em>
Explanation:
<em>Gene flow </em>also known as migration is any movement of individuals, and/or the genetic material they carry, from one population to another. If gene versions are carried to a population where those gene versions previously did not exist, gene flow can be a very important source of genetic variation. In this case, the nearby population <em>migrates </em>to the mole population. The diagram is a good description of the <em>Gene flow </em>process.