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Biology ch5

front 1

List the four major classes of macromolecules.

back 1

Carbohydrates, Lipids, Proteins, Nucleic Acids

front 2

Distinguish between monomers and polymers

back 2

Monomers are the small molecules that make up a Polymer. A Polymer is a long chain consisting of monomers that are connected by covalent bonds.

front 3

Condensation and Hydrolysis reactions

back 3

Condensation reaction -> A reaction in which two molecules become covalently bonded to each other though the loss of a small molecule, usually water; also called dehydration reaction.
Hydrolysis -> A chemical process that lyses, or splits, molecules by the addition of water; an essential process in digestion

front 4

Distinguish among monosaccharides, disaccharides, and polysaccharides.

back 4

monosaccharides: simplest carb and is the monomer for disaccharides and polysaccharides
disaccarides: a double sugar, two monosaccharides bonded together using glycosidic linkage
polysaccharides: a polymer of many monosaccharides

front 5

Describe the formation of glycosidic linkage

back 5

A covalent bond formed between two sugars

front 6

Distinguish between glycosidic linkages found in starch and cellulose. Explain why the difference is biologically important.

back 6

Starch has alpha glycosidic linkages and cellulose has beta glycosidic linkage. Is important because we have an enzyme that breaks down the alpha but not the beta.

front 7

Describe the role of symbiosis in cellulose digestion.

back 7

Symbiosis: ecological relationship between different organisms (cow, bacteria), stuff living inside of other things, beneficial and not so beneficial.
The role in cellulose digestion is bacteria breaks down cellulose for the host cow/bull.

front 8

Describe the building-block molecules, structure, and biological importance of fats, phospholipids, and steroids.

back 8

Fats: are constructed of a glycerol + 3 fatty acids. (saturated fats = bad)
Phospholipids: make up cell membranes; glycerol + 2 fatty acids
Steroid: hormones/cholesterol; four fused rings

front 9

Identify an ester linkage and describe how it is formed.

back 9

Found in fats and connect a glycerol and three fatty acids.

front 10

Distinguish between saturated and unsaturated fats.

back 10

Saturated: no double bonds, straight chains of hydrogen and carbon, solid at room temp
Unsaturated: one or more double bonds formed by removal of hydrogen atoms, liquid at room temperature, bent chains of carbon and hydrogen

front 11

Name the principle energy storage molecules of plants and animals

back 11

Plants: starch stores the energy
Animales: glycogen(made in your liver) store the energy

front 12

Distinguish between a protein and a polypeptide

back 12

Protein: many structures, wide variety of functions, made up of polypeptides
Polypeptide: amino acid sequence (chain), part of the protein

front 13

Explain how a peptide bond forms between two amino acids.

back 13

A dehydration reaction covalently bonds amino group of one amino acid with carboxyl group of another amino acid

front 14

List and describe the four major components of an amino acid. Explain how amino acids may be grouped according to the physical and chemical properties of the R group.

back 14

Amino group
Carboxyl Group
Hydrogen Atom
R Group: determines qulaity (polar, nonpolar, etc.)

front 15

Explain what determines protein conformation and why it is important.

back 15

Polypeptide has to have best environment(temp,pH). Important because if not in good conditions it unravels and can not do the right job. (denaturation)

front 16

Explain how the primary structure of a protein is determined.

back 16

primary structure: DNA tells the amino acid order. bonded with peptide bonds.

front 17

Name two types of secondary protein structures. Explain the role of hydrogen bonds in maintaining secondary structure.

back 17

Secondary: Alpha Helix and Beta Pleated Sheet
They are made by hydrogen bonds.

front 18

*Explain how weak interactions and disulfide bridges contribute to tertiary protein structure.

back 18

tertiary structure has disulfide bridges. covalent bond. ionic bonding. hydrogen bonds. vanderwalls. needs all of these bonds to keep the right shape.

front 19

List four conditions under which proteins may be denatured.

back 19

heat, acid, salt

front 20

List the major components of a nucleotide and describe how these monomers are linked to form a nucleic acid.

back 20

nitrogen base, pentose sugar, phosphate group
sugars and phosphates: ladder upright; covalent bonds
bases: rungs of the ladder (purine bonds with a pyrimidine); hydrogen bonds (weakest)

front 21

Distinguish:
pyrimidine and purine
nucleotide and nucleoside
ribose and deoxyribose
5' end and 3' end

back 21

pyrimidine: C.T.U. (think structure of DNA)
purine: A.G.
nucleotide: base+sugar+phosphate
nucleoside: base+sugar
ribose: RNA
deoxyribose: DNA
5': front
3': back
example: 5' ATTCGA 3' > 3' TAAGCT 5' : complimentary DNA strands

front 22

Briefly describe the three-dimensional structure of DNA

back 22

A double-helix consisting of two anti-parrallel nucleotide strands. There is a spiral around an imaginary axis

front 23

Be able to explain why chaperonins are sometimes necessary and how they may assist in proper folding of proteins.

back 23

The folding is not always spontaneous. They keep amino acids from inappropriate associations.

front 24

List and briefly describe three complementary approach to determining a portion structure

back 24

Primary Structure: the unique amino acid sequence that determines a protein's structure and function. Any slight changes, deletions, insertions or substitutions in the amino acid sequence can have a great impact on the protein's ability to function
Secondary Structure: segments of the polypeptide chain that are repeated coiled or folded patterns. This is the result from hydrogen bonding at regular intervals from the hydrogen/nitrogen atoms that are attracted to the oxygen atoms from a nearby peptide bond. Hydrogen bonding either results in alpha helixes or beta pleated sheets.
Tertiary Structure: irregular contortions from interactions between the various R group side chains

front 25

Explain how DNA or protein comparisons may allow us to assess evolutionary relationships between species

back 25

shared traits and features account for us being descended from one another