Answer:
It is essential to placing or added a drop of sterile water or saline
Explanation:
b.blog
c.goverment website
d.newspaper editorial
Answer:
50%
Explanation:
A gamete has half the amount of chromosomes as a normal cell. Each parents contributes one gamete as to encourage genetic diversity
Answer:
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Explanation:
In the 16th century everyone thought everything revolved around the Earth. It wasn’t till the 17th century that everyone got it right that everything revolved around the Sun. I think both as we get better at understanding things our world becomes bigger and everything could change. One day we could find something different and the next day it will be totally different.
The correct answer is
B. dermal tissue
A sodium atom has a single electron in its outermost electron shell, the first and second shells again being full with two and eight electrons respectively. To remove this outer electron requires only the first ionization energy, which is +495.8 kJ per mole of sodium atoms, a small amount of energy. By contrast, the second electron resides in the deeper second electron shell, and the second ionization energy required for its removal is much larger: +4562.4 kJ per mole. Thus sodium will, in most cases, form a compound in which it has lost a single electron and have a full outer shell of eight electrons, or octet.
Answer : According to the octet rule, sodium wants to lose an electron.
Explanation :
The given element is sodium with atomic number 11 that means it has 11 electrons.
The electronic configuration of sodium will be,
From the electronic configuration, we see that one electron of sodium present in its outer energy level. Sodium can be lose one electron easily for the stable electronic configuration.
According to the octet rule, sodium has the tendency to lose one electron and form positive ion with the charge (+1).
Hence, according to the octet rule, sodium wants to lose an electron.
b. inhibit the production of glucose-1-phosphate.
c. to breakdown atp.
d. stimulate the buildup of glycogen.
e. catalyze the phosphorolysis of glucose-1-phosphate from glycogen molecules.
Glycogen phosphorylase catalyzes the phosphorolysis of glucose-1-phosphate from glycogen molecules, playing a critical role in the process of glycogenolysis. It helps in the conversion of stored glycogen into glucose for use as energy by the body.
The function of glycogen phosphorylase is to catalyze the phosphorolysis of glucose-1-phosphate from glycogen molecules. What this means is that it helps to break down glycogen, a form of energy storage in animals, into glucose-1-phosphate. In other words, glycogen phosphorylase plays a critical role in the process of glycogenolysis, which is the process of converting stored glycogen into glucose for use as energy by the body. It does this by adding a phosphate group to the glycogen molecule, creating glucose-1-phosphate, which can then be converted into glucose-6-phosphate and ultimately used to generate ATP, the cell's primary energy currency.
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