Category:Organic chemistry

Subcategories

This category has the following 33 subcategories, out of 33 total.

Media in category "Organic chemistry"

The following 200 files are in this category, out of 964 total.

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  (% 2B)-1-phenyl-2-propanol reacts with TosCl and pyridine to get an intermediate. The intermediate reacts with acetate to get a.svg 305 × 358; 38 KB
  
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  (1R,3R)-1-bromo-1,3-dimethylcyclohexane reacts with methanol by SN1 mechanism to give (1R,3R)-1-methoxy-1,3-dimethylcyclohexan.svg 432 × 50; 14 KB
  
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  (1R2C3R)-3-meth.svg 393 × 48; 9 KB
  
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  (CH3CH2)2CuLi reacts with (E)-1-bromo-5-methylenenon-1-ene in ether at 0 degrees celsius to give (E)-7-methyleneundec-3-ene2C and ethylcopper.svg 578 × 44; 14 KB
  
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  (S)-2-chlorobutane reacts with hydroxide to give (R)-2-butanol and chloride.svg 301 × 66; 16 KB
  
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  1-hexene reacts with NBS% 3Alight in carbon tetrachloride to give 3-bromo-1-hexene and 1-bromo-2-hexene. this proceeds through two resonance forms of an allylic radical.svg 257 × 209; 15 KB
  
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  18.2 dehydration of alcohols.svg 564 × 102; 28 KB
  
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  18.6 epoxide base hydrolysis.svg 285 × 63; 12 KB
  
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  1o and 2o amines can act as very weak acids.png 1,071 × 204; 20 KB
  
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  2 organolithium reagents react with copper iodide to give a lithium diorganocopper reagent and lithium iodide.svg 338 × 54; 5 KB
  
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  2 Planning a synth.png 1,430 × 544; 108 KB
  
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  2-bromopropane reacts with magnesium in ether to give ethylmagnesium bromide, which then reacts with D2O to give 2-deuteropropane.svg 371 × 48; 9 KB
  
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  2-bromopropane reacts with sodium hydroxide to give 2-propanol and sodium bromide.svg 278 × 34; 3 KB
  
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  20.3 inductive chainlength acidity.svg 316 × 64; 8 KB
  
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  20.3 inductive distance acidity.svg 341 × 69; 10 KB
  
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  20.3 inductive hybrids acidity.svg 260 × 88; 9 KB
  
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  20.3 inductive mono acidity.svg 287 × 63; 9 KB
  
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  20.3 inductive poly acidity.svg 287 × 69; 10 KB
  
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  20.5 alcohol oxidation.svg 225 × 40; 5 KB
  
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  20.5 carbonyl to oh carboxylic example.svg 285 × 50; 10 KB
  
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  20.5 carbonyl to oh carboxylic.svg 288 × 50; 9 KB
  
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  21.3 acid derivative conversion.svg 439 × 312; 28 KB
  
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  21.3 acid derivative reactivity.svg 420 × 99; 11 KB
  
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  21.3 borane complex.svg 455 × 101; 10 KB
  
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  21.4 acid chloride reactions.svg 359 × 348; 30 KB
  
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  21.7 peptide links.svg 177 × 89; 11 KB
  
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  2D representation of 2-butanol.svg 228 × 96; 7 KB
  
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  3.3 common naming alkyl groups.svg 370 × 67; 13 KB
  
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  3.3 secondary subs.svg 279 × 80; 14 KB
  
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  3.3 tertiary subs.svg 263 × 78; 15 KB
  
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  8-4 Answer.jpg 561 × 530; 26 KB
  
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  8-4 Question.jpg 505 × 525; 21 KB
  
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  A generic alkyl halide (chloride2C or iodide) reacts with 1. Mg3Ahexane% 2C then 2. water to give the corresponding alkane.svg 199 × 49; 6 KB
  
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  A negatively charged nucleophile reacts with an alkyl halide to give a neutral product% 2C but a neutral nucleophile reacts wit.svg 251 × 111; 14 KB
  
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  A primary or secondary alcohol reacts with phosphorus tribromide to give an alkyl promide and HOPBr2.svg 340 × 60; 7 KB
  
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  A sinistra un intermedio E1. Al centro lo stato di transizione "ibrido" E1,E2. A destra lo stato di transizione E2.png 550 × 231; 18 KB
  
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  A. 2-chloro-3-methylbutane2C5-dimethylheptane% 2C c. (3-iodobutyl)benzene.svg 94 × 229; 6 KB
  
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  A. 3-bromo-6-methylcyclohex-1-ene and 3-bromo-5-methylcyclohex-1-ene2C 4-bromo-2-methylhept-2-ene2C and (Z)-5-bromo-6.svg 321 × 232; 19 KB
  
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  A. 3-methylbutan-2-ol2C5-dimethylheptan-4-ol% 2C c. 4-phenylbutan-2-ol.svg 253 × 229; 14 KB
  
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  A. cyclohexane2C c. cyclopentane2C e. 2-methylbutane% 2C f. 1-methylcyclopentane.svg 251 × 120; 7 KB
  
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  Acetal cyclization.svg 669 × 225; 44 KB
  
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  Acetal formation general reaction.svg 245 × 76; 6 KB
  
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  Acetals as a protectin group 1.svg 316 × 72; 10 KB
  
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  Acetals as a protectin group 2.svg 320 × 224; 22 KB
  
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  Acetone Reacting with Semicarbazide to form Acetone Semicarbazide.svg 300 × 66; 7 KB
  
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  Acetonphenone to ethylbenzene.svg 386 × 80; 12 KB
  
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  Acetyl group acts to attenuate the overall electron donating character of oxygen and nitrogen 2.png 374 × 248; 4 KB
  
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  Acetylcholinesterase catalyzes hydrolysis of the ester group in acetylcholine.png 624 × 138; 21 KB
  
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  Acid Anhydrides react with alcohols to form esters 2.jpg 654 × 118; 19 KB
  
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  Acid Anhydrides react with alcohols to form esters example.jpg 690 × 88; 13 KB
  
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  Acid Anhydrides react with alcohols to form esters step1.jpg 543 × 181; 15 KB
  
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  Acid Anhydrides react with alcohols to form esters step2.jpg 624 × 219; 16 KB
  
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  Acid Anhydrides react with alcohols to form esters step3.jpg 652 × 164; 15 KB
  
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  Acid Anhydrides react with alcohols to form esters step4.jpg 658 × 119; 11 KB
  
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  Acid Anhydrides react with amines to form amides example.jpg 700 × 76; 13 KB
  
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  Acid Anhydrides react with amines to form amides s1.jpg 474 × 171; 14 KB
  
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  Acid Anhydrides react with amines to form amides s2.jpg 625 × 160; 16 KB
  
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  Acid Anhydrides react with amines to form amides s3.jpg 619 × 154; 14 KB
  
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  Acid Anhydrides react with amines to form amides.jpg 690 × 127; 16 KB
  
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  Acid base reaction with the conjugate base in blue% 2C the proton in green and the base in purple. Nucleophilic substitution re.svg 302 × 206; 36 KB
  
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  Acid bromides can be formed from the corresponding carboxylic acid by reaction with PBr3.png 369 × 151; 8 KB
  
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  Acid Catalyzed Hydrolysis of Nitriles example.png 550 × 178; 22 KB
  
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  Acid Catalyzed Hydrolysis of Nitriles step2.jpg 377 × 132; 10 KB
  
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  Acid Catalyzed Hydrolysis of Nitriles.png 389 × 179; 15 KB
  
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  Acid chlorides react with ammonia to give amides.png 636 × 140; 18 KB
  
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  Acid-Catalyzed Epoxide Ring-Opening by Alcoholysis-2.png 1,644 × 364; 77 KB
  
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  Acid-Catalyzed Epoxide Ring-Opening by Alcoholysis.png 1,424 × 420; 101 KB
  
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  Acidi carbossilici naturali.gif 556 × 300; 5 KB
  
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  Acidi carbossilici.jpg 599 × 115; 55 KB
  
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  Acidity diketones.png 550 × 153; 16 KB
  
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  Activating groups (ortho or para directors).gif 671 × 283; 4 KB
  
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  Acyl groups are resonance deactivators 1.png 575 × 397; 7 KB
  
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  Acyl groups are resonance deactivators 2.png 575 × 209; 5 KB
  
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  Acyl groups are resonance deactivators 3.png 552 × 529; 8 KB
  
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  Additional Reactions Synthetic Uses for α-Halogenated Carbonyls.png 1,660 × 304; 38 KB
  
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  Ag2O Example.png 550 × 182; 45 KB
  
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  Alcohols from Alkenes.png 801 × 114; 4 KB
  
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  Aldehyde to primary alcohol general reaction.png 550 × 155; 24 KB
  
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  Aldehydes are converted to carboxylic acids using a wide variety of oxidizing agents.png 409 × 112; 6 KB
  
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  Alkoxy mechanism.png 1,596 × 1,092; 164 KB
  
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  Alkoxymercuration.png 481 × 147; 4 KB
  
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  Alkyl amines vs aromatic amines.png 705 × 615; 35 KB
  
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  Alkyl chlorides2C or iodides can react with Mg in THF or ether to give a grignard reagent% 2C or with Li in hexane to give an alkyllithium reagent.svg 237 × 120; 8 KB
  
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  Alkyl groups are inductively donating, therefore are activators - para.png 588 × 328; 7 KB
  
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  Alkyl groups are inductively donating, therefore are activators -2.png 560 × 202; 4 KB
  
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  Alkyl groups are inductively donating, therefore are activators.png 562 × 247; 5 KB
  
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  Alkyl halides can be converted to primary amines through a two-step process.png 840 × 104; 21 KB
  
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  All possible representations of butane.svg 293 × 232; 218 KB
  
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  Alogenuri alchilici primari.gif 342 × 44; 645 bytes
  
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  Alogenuri alchilici secondari.gif 254 × 42; 527 bytes
  
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  Alogenuri alchilici terziari.gif 227 × 68; 632 bytes
  
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  Alpha Halogenation of Aldehydes and Ketones Answer 4.svg 259 × 129; 9 KB
  
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  Alpha Halogenation of Aldehydes and Ketones Answer 5.svg 190 × 97; 7 KB
  
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  Alpha Halogenation of Aldehydes and Ketones Question 4.svg 216 × 165; 13 KB
  
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  Alpha Halogenation of Aldehydes and Ketones Question 5.svg 190 × 97; 7 KB
  
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  Amine Extraction in the Laboratory.png 1,863 × 1,349; 45 KB
  
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  Amines are considered basis for the presence of the lone pair electrons on the nitrogen.png 706 × 155; 10 KB
  
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  Amines have one of the lower functional group priorities in the IUPAC nomenclature system.png 585 × 286; 25 KB
  
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  Amygdalin is a naturally occurring molecule contained by certain plants.jpg 433 × 272; 22 KB
  
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  An alkyl halide reacts with Li to give an alkyllithium% 2C which reacts with CuI to give lithium dialkylcopper. that reacts with XR' to give an alkane.svg 359 × 38; 6 KB
  
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  Anhydride formation general reaction.png 1,382 × 191; 6 KB
  
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  Anhydride formation.svg 461 × 83; 8 KB
  
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  Aniline - acetyl group acts to attenuate the overall electron donating character of oxygen and nitrogen.png 392 × 245; 3 KB
  
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  Arylamines are typically prepared by the reduction of a nitro group on an aromatic ring.png 397 × 532; 8 KB
  
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  Asym disub OMP 03.png 620 × 455; 4 KB
  
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  Asym disub OMP 06.png 600 × 400; 70 KB
  
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  Asym disub OMP 09.png 378 × 403; 44 KB
  
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  Asym disub OMP 12.jpg 572 × 270; 34 KB
  
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  Asymmetrical ketones offer the possibility of two separate synthesis routes.png 164 × 189; 8 KB
  
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  Autooxidation ether.svg 440 × 112; 8 KB
  
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  Base Catalyzed Hydrolysis of Nitriles example.png 436 × 102; 19 KB
  
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  Base Catalyzed Hydrolysis of Nitriles.png 566 × 216; 17 KB
  
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  Base Promoted Alpha Halogenation.svg 546 × 120; 13 KB
  
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  Base-catalyzed conversion of acetaldehyde to ethane-1% 2C1-diol.svg 173 × 43; 7 KB
  
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  Basic Epoxide Ring-Opening by Alcoholysis.png 1,360 × 396; 80 KB
  
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  Basic Reaction of 1,2 Addition - Example 1% 2C2 addition.svg 184 × 50; 6 KB
  
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  Basicity of Aniline 2.png 691 × 167; 17 KB
  
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  Basicity of Aniline.png 998 × 325; 40 KB
  
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  Basicity of Substituted Arylamines.png 550 × 183; 42 KB
  
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  Benefits of the wittig 1.svg 323 × 108; 8 KB
  
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  Biological Haloform Reaction Bio Haliform.svg 764 × 96; 11 KB
  
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  Biological imine formation.svg 397 × 106; 15 KB
  
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  Biological Reductive Aminations.png 603 × 126; 11 KB
  
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  Biological Sulfonium Ion Formation 2.png 727 × 392; 35 KB
  
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  Biological Sulfonium Ion Formation.png 624 × 356; 40 KB
  
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  Boiling Point and Water Solubility ammine.png 419 × 244; 10 KB
  
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  Bond-line structures of methyllithium2C t-butyllithium2C methylmagnesium bromide% 2C and phenylmagnesium bromide.svg 337 × 142; 12 KB
  
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  Bonding, Shape, and Hybridization of Amines.png 216 × 280; 12 KB
  
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  Breakdown of bonds formed and broken in conversion of aldehyde or ketone to hydrate.svg 336 × 46; 11 KB
  
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  Carbonyl carbons are electrophilic due to bond polarity created by resonance.png 1,089 × 283; 18 KB
  
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  Carbonyl Isomerization mechanism.svg 442 × 144; 22 KB
  
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  Carbonyl Isomerization.svg 241 × 93; 8 KB
  
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  Carboxylation of Grignard Reagents example.png 368 × 125; 18 KB
  
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  Carboxylation of Grignard Reagents steps.svg 332 × 42; 10 KB
  
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  Carboxylation of Grignard Reagents.svg 165 × 51; 5 KB
  
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  Carboxylic acid derivatives and acyl groups.svg 460 × 198; 20 KB
  
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  Carboxylic Acid Derivatives General Reaction 1.svg 312 × 51; 5 KB
  
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  Carboxylic Acid Derivatives.svg 323 × 184; 16 KB
  
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  Carboxylic acids react with thionyl chloride (SOCl2) to form acid chlorides.png 363 × 131; 10 KB
  
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  Ch 21 sect 2 example 1.png 606 × 147; 6 KB
  
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  Ch 21 sect 2 example 2.png 651 × 147; 5 KB
  
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  Chain-growth polymerization 2.png 758 × 275; 8 KB
  
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  Chain-growth polymerization.png 554 × 171; 5 KB
  
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  Chemical reaction, Boiling water bath.jpg 1,032 × 774; 71 KB
  
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  Chemorg 1.10.1.svg 516 × 91; 16 KB
  
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  Chemorg 1.10.4.svg 516 × 91; 19 KB
  
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  Chemorg 1.12.26.png 790 × 222; 26 KB
  
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  Chemorg 1.2.4.jpg 1,996 × 633; 96 KB
  
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  Chemorg 1.6.10.jpg 358 × 550; 24 KB
  
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  Chemorg 1.6.3.svg 166 × 87; 85 KB
  
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  Chemorg 1.6.4.svg 442 × 92; 188 KB
  
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  Chemorg 1.6.5.png 160 × 143; 8 KB
  
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  Chemorg 1.6.6.png 128 × 160; 9 KB
  
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  Chemorg 1.6.7.png 470 × 550; 25 KB
  
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  Chemorg 1.7.6.png 348 × 161; 11 KB
  
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  Chemorg 1.8.11.jpg 550 × 198; 13 KB
  
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  Chemorg 1.8.12.png 155 × 180; 6 KB
  
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  Chemorg 1.8.2.svg 442 × 92; 186 KB
  
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  Chemorg 1.8.3.png 160 × 78; 8 KB
  
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  Chemorg 1.8.4.png 550 × 246; 38 KB
  
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  Chemorg 1.8.5.png 681 × 235; 40 KB
  
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  Chemorg 1.8.6.png 447 × 308; 64 KB
  
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  Chemorg 1.8.7.png 447 × 324; 28 KB
  
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  Chemorg 1.8.8.png 383 × 314; 49 KB
  
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  Chemorg 2.7.2.svg 393 × 98; 19 KB
  
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  Chemorg 2.7.28.svg 410 × 185; 19 KB
  
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  Chimica organica 1.0.1.jpg 1,200 × 282; 731 KB
  
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  Chimica organica 1.0.5.png 1,880 × 1,255; 2.57 MB
  
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  Chimie Organique.jpg 800 × 450; 46 KB
  
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  Chirality of Amines 2.png 354 × 263; 11 KB
  
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  Chirality of Amines.png 1,007 × 258; 34 KB
  
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  Choosing a Synthesis Pathway to a Carboxylic Acid - solution A.png 468 × 109; 19 KB
  
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  Choosing a Synthesis Pathway to a Carboxylic Acid - solution B.png 625 × 132; 28 KB
  
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  Choosing a Synthesis Pathway to a Carboxylic Acid - solution C.png 625 × 91; 23 KB
  
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  Chorismate mutase catalyzed Claisen rearrangement of chorismate to form prephenate.png 425 × 197; 17 KB
  
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  Cinnamaldehyde Reacting with Hydroxyl Amine to form Cinnamaldehyde Oxime.svg 356 × 80; 10 KB
  
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  Classification of Amines example.png 512 × 208; 11 KB
  
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  Classification of Amines example2.png 389 × 123; 7 KB
  
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  Classification of Amines example3.png 440 × 129; 10 KB
  
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  Classification of Amines.png 642 × 122; 10 KB
  
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  Clipboard e632edeb57e7b24117bfd6c1d832ecc74.png 376 × 328; 12 KB
  
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  Clipboard e87b0516f74704cabecfa4f72f6b58a5d 01.png 719 × 323; 29 KB
  
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  Coenzyme A is often abbreviated HSCoA.png 664 × 220; 37 KB
  
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  Coenzyme A.png 1,532 × 528; 85 KB
  
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  Combined applications of these options.gif 582 × 261; 3 KB
  
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  Commonly used trivial names of some compounds.png 505 × 173; 89 KB
  
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  Comparison of relative equilibrium distribution of formaldehyde2C and acetone with their hydrate forms.svg 288 × 269; 21 KB
  
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  Composti ionici con i simboli di Lewis.png 1,300 × 672; 90 KB
  
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  Compounds containing amides have a wide range of biological activity.png 1,071 × 403; 65 KB
  
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  Conjugated enones and conjugated dienes.png 274 × 125; 62 KB
  
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  Conversion of 1o Amides to Nitriles - Dehydration example.png 528 × 233; 5 KB
  
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  Conversion of 1o Amides to Nitriles - Dehydration s1.png 368 × 210; 4 KB
  
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  Conversion of 1o Amides to Nitriles - Dehydration s2.png 449 × 192; 4 KB
  
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  Conversion of 1o Amides to Nitriles - Dehydration s3.png 546 × 246; 4 KB
  
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  Conversion of 1o Amides to Nitriles - Dehydration.png 500 × 118; 3 KB
  
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  Conversion of Acid Anhydrides to Amides - Aminolysis example.png 598 × 109; 4 KB
  
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  Conversion of Acid Anhydrides to Amides - Aminolysis.png 588 × 101; 5 KB
  
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  Conversion of Acid Anhydrides to Carboxylic Acids - Hydrolyisis example.png 517 × 123; 4 KB
  
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  Conversion of Acid Anhydrides to Carboxylic Acids - Hydrolyisis.png 492 × 112; 4 KB
  
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  Conversion of Acid Anhydrides to Esters - Alcoholyisis example.png 647 × 123; 5 KB