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Organic Chemistry - Aldehydes Ketones & Carboxylic Acid
11 students

Organic Chemistry - Aldehydes Ketones & Carboxylic Acid

Complete Chemistry for Engg and Medical Entrance Exam Preparation. ( IIT JEE Main | Advanced | BITSAT | SAT | NEET etc.)
Created bystudi live
Last updated 3/2022
English
English [Auto],

What you'll learn

  • Write the common and IUPAC names of aldehydes, ketones and carboxylic acids
  • Write the structures of the compounds containing functional groups namely carbonyl and carboxyl groups
  • Describe the important methods of preparation and reactions of these classes of compounds
  • Correlate physical properties and chemical reactions of aldehydes, ketones and carboxylic acids, with their structures
  • Explain the mechanism of a few selected reactions of aldehydes and ketones
  • Understand various factors affecting the acidity of carboxylic acids and their reactions
  • Describe the uses of aldehydes, ketones and carboxylic acids

Course content

1 section • 109 lectures • 13h 19m total length
  • Preparation From Carboxylic Acid7:10
  • Preparation From Carboxylic Acid For Ketone8:36
  • Preparation of Aldehyde By Catalytic Dehydrogenation of Alcohol8:24
  • Preparation of Aldehydes by Unsaturated Hydrocarbon7:26
  • Preparation From Dihalides8:22
  • Preparation of Aldehyde And Ketones From Alcohol7:15
  • Preparation From Unsaturated Hydrocarbon5:45
  • Hydration of Alkyne7:33
  • Indirect Hydration of Alkyne5:42
  • Preparation of Aldehydes7:23
  • By Using DIBAL-H7:51
  • Ester7:19
  • From Grignard Reagent Nitrile6:07
  • Chlorination of Alkylside Chain of Aromatic Hydrocarbon5:07
  • From Aromatic Hydrocarbon9:47
  • Etard Reaction4:05
  • Gattermann's Koch Reaction8:08
  • Gattermann's Koch Reaction Example3:19
  • Rosenmund Reduction5:09
  • From Acylchloride6:38
  • Friedel Craft Acylation8:05
  • Examples of Aldehydes and Ketones9:26
  • Pinacol - Pinacolone Reaction5:33
  • Chemical Reaction of Aldehydes and Ketones9:16
  • Formation of Cyanohydrin10:37
  • Addition of Alcohol10:52
  • Mechanism of Acetal Formation9:28
  • Addition of Sodium Bisulphite6:04
  • Addition of Ammonia to Formaldehyde5:23
  • Addition of Ammonia to Acetaldehyde7:47
  • Addition of Ammonia to Acetone4:45
  • Addition of Ammonia to Acetone and Its Uses6:59
  • Addition of Grignard Reagent7:44
  • Addition of Ammonia Derivatives to Carbonyl Compound9:06
  • Addition of Ammonia Derivatives Part - 16:54
  • Addition of Ammonia Derivatives Part - 24:58
  • Addition of Water4:53
  • Reaction of Formaldehyde with Ammonia and Uses3:37
  • Haloform Reaction8:42
  • Reduction of Carbonyl Compound11:02
  • Reduction to Pinacol6:01
  • Reduction with Hydrazine under Different Condition3:48
  • Conversion of Alkyl Ketones into Alkyl Benzene3:54
  • Aldol Condensation10:29
  • Aldol Condensation II9:33
  • Wolff Kishner's Reduction7:30
  • Mechanism Aldol Condensation Part - 111:40
  • Mechanism Aldol Condensation Part - 28:52
  • To Get Carbonyl Compound from Alpha Beta Unsaturated Compounds7:43
  • Question on the Basis on Aldol7:20
  • Cross or Mixed Aldol Condensation12:29
  • Question on Cross Aldol Condensation6:51
  • Intramolecular Aldol Condensation10:47
  • Cannizzaro's Reaction6:06
  • Mechanism of Cannizzaro's Reaction6:59
  • Intramolecular Cannizzaro's3:46
  • Cross Cannizzaro's9:19
  • Mechanism of Intramolecular Cannizzaro's6:16
  • Ex of Aldol and Cannizzaro's9:38
  • Claisen Condensation6:42
  • Oxidation4:42
  • Oxidation of Ketones6:49
  • Fehling Solution7:03
  • Schiff's Reagent3:21
  • Tollen's Reagent6:06
  • Laboratory Test for Ketonic Group4:19
  • Summary of Reaction of Aldehydes and Ketones9:31
  • Physical Properties of Aldehydes & Ketones8:23
  • Uses of Aldehydes and Ketones3:45
  • Aldehydes and Ketones Used in Daily Life4:02
  • Carboxylic Acid Intro8:04
  • Monocarboxylic Acid9:28
  • Some Important Carboxylic Acid9:10
  • Comparison of Formic Acid and Acetic Acid4:53
  • Nomenclature of Acids Part -17:51
  • Nomenclature of Acids Part -27:18
  • IUPAC Names Part -15:49
  • IUPAC Names Part -27:11
  • Structure of Carboxylic Group7:10
  • From Primary Alcohol and Aldehyde8:38
  • From Alkylbenzene By Oxidation6:22
  • From Nitrile And Amide9:01
  • From Dry Ice By Action of Grignard Reagent7:00
  • From Acylhalide and Acid Anhydride6:40
  • From Ester By Hydrolysis4:39
  • Summary of Preparation of Carboxylic Acid2:57
  • Physical Properties of Carboxylic Acid7:50
  • Carboxylic Acid Reaction Involve Break OH Bond Carboxyl Group (Acidic Nature)8:13
  • Reaction Involving Breaking of C-OH bond of Carboxyl Group of Anhydride4:32
  • Breaking of C-OH Bond of Carboxyl Group Alternative of Anhydride5:39
  • Reaction Involving Breaking of C-OH Bond of Carboxyl Group of Ester7:42
  • Order in Reactivity of Acids and Alcohol in Esterification3:11
  • Mechanism of Esterification9:55
  • Reaction Involve Break of C-OH Bond of Carbonyl Group Formation of Acyl Chloride7:15
  • Reaction Involving Carbonyl Group (Reduction)7:37
  • Reaction Involving Breaking of C-OH bond of Carboxyl Group of Amide10:57
  • Reaction Involving Breaking of C-OH Bond of Carboxyl Group Phthalimide6:34
  • Reaction of Carboxylic Acid Reaction Involving Carboxyl Group (Decarboxylation)13:05
  • Reaction Involving Hydrocarbon Part of Carboxylic Acid (Halogenation)5:52
  • Ring Substitution5:35
  • Use of Carboxylic Acid2:34
  • Acidic Character of Carboxylic Acid11:36
  • Expressing Strength of Carboxylic Acid10:54
  • Effect of Substituents on Acidic Strength of Benzoic Acid10:45
  • Effect of Substituents on Acidic Strength Part - 111:20
  • Effect of Substituents on Acidic Strength Part - 26:04
  • Effect of Substituents on Acidic Strength Part - 39:06
  • Effect of Substituents on Acidic Strength Part - 412:03
  • Comparison of Relative Acidic Strength7:27

Requirements

  • Basic understanding of chemistry and math's

Description

SUMMERY

Aldehydes, ketones and carboxylic acids are some of the important classes of organic compounds containing carbonyl group. These are highly polar molecules. Therefore, they boil at higher temperatures than the hydrocarbons and weakly polar compounds such as ethers of comparable molecular masses. The lower members are more soluble in water because they form hydrogen bonds with water. The higher members, because of large size of hydrophobic chain of carbon atoms, are insoluble in water but soluble in common organic solvents. Aldehydes are prepared by dehydrogenation or controlled oxidation of primary alcohols and controlled or selective reduction of acyl halides. Aromatic aldehydes may also be prepared by oxidation of (i) methylbenzene with chromyl chloride or CrO3 in the presence of acetic anhydride, (ii) formylation of arenes with carbon monoxide and hydrochloric acid in the presence of anhydrous aluminium chloride, and (iii) cuprous chloride or by hydrolysis of benzal chloride. Ketones are prepared by oxidation of secondary alcohols and hydration of alkynes. Ketones are also prepared by reaction of acyl chloride with dialkylcadmium. A good method for the preparation of aromatic ketones is the Friedel-Crafts acylation of aromatic hydrocarbons with acyl chlorides or anhydrides. Both aldehydes and ketones can be prepared by ozonolysis of alkenes. Aldehydes and ketones undergo nucleophilic addition reactions onto the carbonyl group with a number of nucleophiles such as, HCN, NaHSO3 , alcohols (or diols), ammonia derivatives, and Grignard reagents. The α-hydrogens in aldehydes and ketones are acidic. Therefore, aldehydes and ketones having at least one α-hydrogen, undergo Aldol condensation in the presence of a base to give α-hydroxyaldehydes (aldol) and α-hydroxyketones(ketol), respectively. Aldehydes having no α-hydrogen undergo Cannizzaro reaction in the presence of concentrated alkali. Aldehydes and ketones are reduced to alcohols with NaBH4 , LiAlH4 , or by catalytic hydrogenation. The carbonyl group of aldehydes and ketones can be reduced to a methylene group by Clemmensen reduction or Wolff-Kishner reduction. Aldehydes are easily oxidised to carboxylic acids by mild oxidising reagents such as Tollens’ reagent and Fehling’s reagent. These oxidation reactions are used to distinguish aldehydes from ketones. Carboxylic acids are prepared by the oxidation of primary alcohols, aldehydes and alkenes by hydrolysis of nitriles, and by treatment of Grignard reagents with carbon dioxide. Aromatic carboxylic acids are also prepared by side-chain oxidation of alkylbenzenes. Carboxylic acids are considerably more acidic than alcohols and most of simple phenols. Carboxylic acids are reduced to primary alcohols with LiAlH4 , or better with diborane in ether solution and also undergo α-halogenation with Cl2 and Br2 in the presence of red phosphorus (Hell-Volhard Zelinsky reaction). Methanal, ethanal, propanone, benzaldehyde, formic acid, acetic acid and benzoic acid are highly useful compounds in industry.

Who this course is for:

  • Parents whose wards are students preparing for Indian Engineering and Medical Entrance Exams
  • IIT JEE | JEE Main | JEE Advanced | BITSAT | NEET | AIPMT | KVPY | SAT | GATE | MSAT