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Page 1: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Macromolecules

Page 2: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Organic Chemistry

Page 3: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Isomers

S = Difference in covalent bonds

G = Difference in arrangement around double bond

E = Different in spatial arrangement

Page 4: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Pharmacological Enantiomers

Page 5: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial
Page 6: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Awakenings

Page 7: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Thalidomide

Page 8: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Chemical Groups

Page 9: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Functional Groups

Page 10: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Monomers and Polymers

Monomers to Polymers (build larger molecules) – Dehydration synthesis

Polymers to Monomers (break down molecules) - Hydrolysis

Page 11: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Monomers and Polymers

Page 12: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Macromolecules

Carbohydrates

Proteins

Lipids

Nucleic Acids

Page 13: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Monosaccharides

Page 14: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Carbohydrates

Page 15: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Simple Sugars

Monosaccharaides – One subunit

Ex. Glucose, Fructose

Disaccharides – two subunits

Ex. Maltose, Sucrose

Page 16: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Complex Carbohydrates Polysaccharides (Storage)

Starch - Plants Glycogen - Animals

Page 17: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Complex Carbohydrates Polysaccharides (Structure)

Cellulose - Plants Chitin - Animals

Page 18: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Buyer’s Beware

Page 19: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Why can’t we eat grass?

Page 20: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Lipids

TriglyceridesGlycerol

Three fatty acids

Page 21: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Saturated vs. Unsaturated

Page 22: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Partially Hydrogenated Fats (Trans)

Page 23: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Phospholipids

Page 24: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Steroids

Cholesterol

Testosterone

Estrogen

Page 25: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Anabolic Steroids

Page 26: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Lipid Functions

Energy storage

Cushions internal organs

Insulation

Membrane Structure

Water storage

Toxic storage

Chemical Messengers

Page 27: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Proteins

Page 28: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Peptide Bonds

Page 29: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Primary Structure

Straight Chain

Peptide Bonds

Page 30: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Secondary Structure

Hydrogen Bonds

Alpha Helix, Beta Pleats, Random Coils

Page 31: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Tertiary Structure

All Bonds

Usually Globular

Page 32: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Quaternary Structure

Two or more subunits together

All bonds

Page 33: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial
Page 34: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Hemoglobin

Page 35: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Protein Functions

Structure

Storage

Transport

Coordination of body activities (Hormones)

Communication

Contractile (Movement)

Protection

Enzymes

Page 36: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Nucleic Acids

Made up of nucleotides

Pentose Sugar

Nitrogenous Base

Phosphate Group

Ex. DNA, RNA, ATP

Page 37: Macromolecules. Organic Chemistry Isomers S = Difference in covalent bonds G = Difference in arrangement around double bond E = Different in spatial

Nucleic Acids Functions

Genetic Information

Energy Movement