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Organic Chemistry I: Course Syllabus and Study Guide Overview

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Intro to Organic Chemistry

  • Organic molecules in your everyday life.
    02:08
  • Identifying organic molecules
    02:17

Atomic Structure

  • Three rules about orbitals you need to know.
    02:54
  • Understanding the hydrogen isotopes.
    03:06
  • The difference between atomic numbers and atomic mass.
    01:44

Molecular Orbitals

  • Sigma bond vs. pi bond, which is stronger?
    03:25
  • What’s the difference between sigma and pi bonds?
    02:19
  • What’s the difference between atomic and molecular orbitals?
    11:25

Octet Rule

  • LCAO model proves why Noble gases are so stable.
    03:48
  • The most important parts of the periodic table for organic chemistry
    02:24
  • How Noble gases are related to the octet rule.
    01:05

Bonding Preferences

  • What is the difference between valence and octet electrons?
    02:04
  • Understanding the hydrogen isotopes.
    08:32
  • What is a valence electron?
    02:14

Hybridization

  • How carbon creates 4 partially-filled orbitals.
    02:53
  • Bond sites, hybridization, and intermediate orbitals
    04:58
  • Introduction to the reactive intermediates.
    02:47

Formal Charges

  • Calculate the formal charges of ALL atoms.
    02:21
  • Calculating formal and net charge.
    01:34

Skeletal Structure

  • How bondline is different from Lewis Structures.
    04:03
  • Conversion of ethanol from electron dot to bondline
    01:50

Lewis Structure

  • Drawing the Lewis Structure for N2H4.
    04:12
  • How to use Organic Chemistry to make Lewis Structures easier.
    03:49

Functional Groups

  • Assigning Degrees to Alkyl Halides
    01:30
  • Why we need functional groups.
    01:49
  • The difference between aldehydes and ketones.
    03:08

Acids and Bases

  • Lewis vs. Bronsted-Lowry Definition
    07:46
  • The Bronsted-Lowry definition of acids and bases.
    00:54
  • Equilibrium constant and conjugates.
    02:11

Resonance Structures

  • How to draw a resonance hybrid.
    03:24
  • The rules you need for resonance:
    03:34
  • How to determine which structure is most stable.
    01:32

Chirality

  • Drawing Mirror Images and Determining Chirality
    03:24
  • What is chirality?
    05:10
  • Drawing Mirror Images and Determining Chirality
    03:44

Newman Projections

  • How to draw a Newman Projection Energy Diagram.
    07:27
  • How sigma bond rotation is visualized
    03:11
  • The energy states of 3 different Newman Projections.
    03:51

A-Values

  • Calculating Chair Equilibrium
    06:27

Alkyl Groups

  • Name the following alkane
    02:33
  • Understanding Non-IUPAC Substituents
    06:42
  • Name the following alkane
    03:56

Nucleophilic Substitution

  • Predict the product
    05:55
  • Nucleophiles and Electrophiles can react in Bronsted-Lowry Reactions.
    05:01
  • Nucleophiles and Electrophiles can react in Substitution Reactions.
    01:47

Leaving Groups

  • The 3 important leaving groups to know.
    07:22

SN1 Reaction

  • Drawing the SN1 Mechanism
    10:49
  • Why highly substituted leaving groups favor SN1.
    01:13
  • Understanding the properties of SN1.
    08:16

SN2 Reaction

  • Ranking reactivity toward SN2
    04:03
  • Drawing the SN2 Mechanism
    08:33
  • Understanding the properties of SN2.
    11:57

E2 Mechanism

  • Understanding the properties of E2.
    04:42
  • Drawing the E2 Mechanism.
    09:36
  • Rank reactivity toward E2
    02:03

E1 Reaction

  • Understanding the properties of E1.
    03:32
  • Drawing the E1 Mechanism.
    08:09

Zaitsev Rule

  • Hofmann product
    02:39
  • Defining Zaitsev’s Rule
    01:18
  • Zaitsev product
    07:01

Alkene Stability

  • Heat of Combustion
    02:55
  • Understanding trends of alkene stability.
    04:28

Addition Reaction

  • Provide the mechanism
    01:15
  • Features of Addition Mechanisms.
    05:39

Markovnikov

  • Provide the mechanism
    01:26
  • How to add to asymmetrical double bonds.
    03:38

Anti Markovnikov Addition of Br

  • Provide the complete mechanism for the following radical hydrohalogenation.
    02:53
  • How Radical Hydrohalogenation is different from typical Hydrohalogenation.
    07:13
  • Overview of Hydrohalogention.
    01:18

Acid-Catalyzed Hydration

  • General properties of acid-catalyzed hydration.
    06:32
  • Acid-catalyzed hydration mechanism
    06:34

Oxymercuration

  • Acid-catalyzed oxymercuration-reduction mechanism
    09:01
  • General properties of oxymercuration-reduction.
    05:

Hydroboration

  • General properties of hydroboration-oxidation.
    06:38
  • Acid-catalyzed hydroboration-oxidation mechanism
    06:14

Hydrogenation

  • General properties of catalytic hydrogenation.
    05:21

Halogenation

  • Halogenation Mechanism
    03:45
  • General properties of halogenation.
    02:27

Epoxidation

  • Halohydrins to epoxides via intramolecular SN2.
    02:26
  • General properties of epoxidation.
    02:19
  • The mechanism of how peroxy acids make epoxides.
    03:19

Dihydroxylation

  • General properties of syn vicinal dihydroxylation.
    03:50
  • Predict the product for the following multi-step reaction.
    04:42

Ozonolysis

  • General properties of ozonolysis.
    06:30

Oxidative Cleavage

  • General properties of strong oxidative cleavage.
    06:00

Alkene Metathesis

  • 가이드 코스
    Alkene Metathesis Example 1
    1:47
  • 가이드 코스
    Alkene Metathesis Example 4
    1:41
  • 가이드 코스
    Alkene Metathesis Example 2
    3:04

Tautomerization

  • Tautomerization Mechanisms
    05:11
  • Unusual Acidity of the Alpha Carbon
    01:51

Grignard Reaction

  • Reactions of Organometallics
    13:40

Reducing Agent

  • Intro
    00:15
  • Reducing Agents
    09:28

Williamson Ether Synthesis

  • The Mechanism of Williamson Ether Synthesis.
    03:50

Fischer Esterification

  • General Mechanism
    04:08
  • General Reaction
    01:08