Answer:
The amount of the solute is the quantity that would be equal between two solutions that are isotonic.
Explanation:
Tonicity can be described as the measure of osmotic pressure among solutions.
If the amount of solutes that is present in a solution is equal to the amount of solute that is present in another solution, then the two solutions would be considered as isotonic. No transfer of solutes will take place in such solutions.
Any rise or loss of solutes in either of the solutions will result in the transfer of solutes among the solutions and the solutions will no longer remain isotonic.
Answer:
Explanation:
1.The monomers of carbohydrates are called <u>monosaccharides</u>. Examples are <u>glucose</u> and <u>fructose</u>. When we bond together 2 monosaccharides together by <u>dehydration synthesis</u> we get what’s called a <u>disaccharide</u>. Examples of disaccharides are <u>sucrose</u> and <u>maltose</u>. When many <u>monosaccharides</u> are connected by <u>glycosidic linkages </u>we call it a <u>polysaccharide</u>. The prefix <u>poly</u> refers to many. Examples of polysaccharides include <u>starch</u> in plants and <u>amylose</u> in animals.
This is a new gibbous moon.
Answer:
The correct answer is cephalocaudal pattern of growth.
Explanation:
Cephalocaudal signifies head to toe, the cephalocaudal pattern of growth is generally witnessed in the initial years of postnatal development, that is, from infancy to toddlerhood. The cephalocaudal development signifies the growth and development starting from the head to the parts below.
In this pattern of growth, the infant possesses the tendency to first acquire their control over the muscles of the neck that makes them hold their head in a steady manner. The cephalocaudal pattern is the tendency of the infant to make use of their upper limbs first like hands before making use of their lower limbs, that is, for crawling or walking.
Answer:
The hypothesis that eukaryotic cells evolved from a symbiotic association of prokaryotes (endosymbiosis) is particularly well supported by studies of mitochondria and chloroplasts, which are thought to have evolved from bacteria living in large cells.
Explanation:
Both mitochondria and chloroplasts are similar to bacteria in size, and like bacteria, they reproduce by dividing in two.