Glucose is a monosaccharide, consisting of one 6-carbon ring.  Sucrose and maltose are disaccharides, and starch is a polysaccharide chain of glucose units.

Chitin is a polymer that makes up the cell wall of fungal cells as well as the exoskeleton of arthropods. It itself is made up of N-Acetylglucosamine

Starch is a polysaccharide stored in plants.  Glycogen is a polymer of glucose in animals stored in the liver and muscle cells.  Lipids are molecules made mostly of carbon and hydrogen that store energy.

Sucrose is made up of a glucose molecule and a fructose molecule. Knowing this gives a hint to the correct answer. Maltose is made up of two glucose molecules. Many glucose molecules joined together make up starch. Lactose is the sugar found in milk, and is made up on a glucose and a galactose molecule. Thus, all of the other sugars listed are disaccharides. Lactase is an enzyme, as shown by the "-ase" ending. 

A phosphodiester bond occurs in DNA and RNA between nucleotides to form nucleic acids. Ester linkage occurs in fats and lipids between a carboxyl group and the carbon chain. A peptide bond occurs between two amino acids to form a peptide bond. Hydrogen bonding is the interaction of a hydrogen of one molecule with either a oxygen, nitrogen, or fluorine of another molecule.

Maltose is a disaccharide and glucose is a monosaccharide so the question is asking what will break the disaccharide into its respected monosaccharide. Hydrolysis is the addition of a water molecule to break the glycosidic linkage of a sugar. Dehydration reaction is a type of condensation reaction that will ultimately join two monosaccharides together via the removal of a water molecule. Polymerization is a general term with regards of monomers forming polymers through a reaction. Hydration reactions are the addition of a water molecule but do not necessarily break any bonds but are used form an alcohol.

Prokaryotes do have organelles, but not complex, membrane-bound organelles. As a result, the membrane-bound mitochondria would not be seen in prokaryotes. Remember that plants are eukaryotes, and have cell walls just like prokaryotes. In addition, prokaryotes have ribosomes as well as DNA.

Prokaryotes do not have membrane-bound organelles, such as mitochondria or an endoplasmic reticulum.

Flagella are hair-like structures that allow the cell to move, and are present in both prokaryotes and eukaryotes. Although prokaryotes don't have multiple chromosomes like eukaryotes, they do still have DNA in the form of a cyclic chromosome. Ribosomes are not bound by a membrane, and are essential to the process of translation, which creates proteins in the cell. Prokaryotes and eukaryotes possess ribosomes in order to form functional proteins.

Prokaryotes, such as bacteria, do not contain membrane-bound organelles such as the nucleus, mitochondria, and chloroplasts that we might find in a eukaryotic cell. Since we know the electron transport chain (ETC) is important in providing cellular energy, prokaryotes must still perform some form of this process. The complexes of the ETC are found in the actual cellular membrane that separates the cell from the environment in prokaryotes, while they are found in the inner mitochondrial membrane in eukaryotes. Eukaryotes are then able to generate a proton gradient between the two mitochondrial membranes within the intermembrane space, while prokaryotes can generate a gradient between the cell membrane and cell wall.

Prokaryotes do not have membrane-bound organelles, so they would not have mitochondria.

Cell walls and plasma membranes are found in both bacteria (prokaryotes) and plants (eukaryotes). Ribosomes are not bound by a membrane, and are mainly composed of rRNA; they are used for protein synthesis in both prokaryotes and eukaryotes.