Interesting facts
              Interesting Facts about 1-Methyl-3-vinyl-benzene
1-Methyl-3-vinyl-benzene, commonly referred to as p-methylstyrene, is a fascinating compound in the world of organic chemistry. Here are some engaging facts about this compound:
- Structure and Symmetry: The molecular structure of 1-methyl-3-vinyl-benzene is notable for its vinyl and methyl substituents attached to a benzene ring. This arrangement gives it unique electronic and physical properties, enhancing its reactivity.
 - Polymer Applications: This compound serves as an important building block in the synthesis of a wide range of polymers. Its ability to copolymerize efficiently with other monomers makes it useful in the production of plastics and synthetic rubber.
 - Reactivity: Due to the presence of both a vinyl group and a methyl group, 1-methyl-3-vinyl-benzene exhibits interesting reactivity patterns. It can undergo various types of reactions, including polymerization and substitution reactions, which are essential in many industrial processes.
 - Industrial Relevance: The compound is utilized in the formulation of copolymers, which serve important roles in coatings, adhesives, and sealants. Its properties make it advantageous for improving the mechanical strength and durability of materials.
 - Environmental Considerations: As with many chemical compounds, the use of p-methylstyrene comes with environmental implications. Understanding its behavior and potential impacts helps in developing safer production methods and reducing ecological footprints.
 
In conclusion, 1-methyl-3-vinyl-benzene is not just an ordinary aromatic compound; it is a key player in the field of polymer chemistry and has a significant industrial footprint. As a chemistry student or scientist, exploring its properties, reactions, and applications can yield insights into both fundamental chemistry and practical material science.
Synonyms
          3-Methylstyrene
          100-80-1
          1-Methyl-3-vinylbenzene
          3-Vinyltoluene
          m-Vinyltoluene
          1-Ethenyl-3-methylbenzene
          Benzene, 1-ethenyl-3-methyl-
          M-METHYLSTYRENE
          Styrene, m-methyl-
          m-Methyl styrene
          m-vinyl toluene
          EINECS 202-889-2
          FFK4I9430G
          3-Ethenylmethylbenzene
          DTXSID9051454
          METAMETHYL STYRENE
          METHYLSTYRENE, M-
          DTXCID201436
          HSDB 8450
          Benzene, 1-ethenyl-3(or 4)-methyl-
          3-Methylstyrene (stabilized with TBC)
          1-Methyl-3-ethenylbenzene
          Vinyl toluene (65-71% m- and 32-35% p-)
          meta-Methylstyrene
          UNII-FFK4I9430G
          mMethylstyrene
          mVinyltoluene
          3methylstyrene
          mMethyl styrene
          metaMethylstyrene
          m-methyl-styrene
          3-vinyl toluene
          Styrene, mmethyl
          1Methyl3vinylbenzene
          MFCD00008617
          1Ethenyl3methylbenzene
          Benzene, 1ethenyl3methyl
          DSSTox_CID_1436
          1-ethenyl-3-methyl-benzene
          DSSTox_RID_78088
          DSSTox_GSID_26292
          CHEMBL1381662
          JZHGRUMIRATHIU-UHFFFAOYSA-
          Tox21_200186
          Tox21_303890
          BBL103758
          STL557568
          AKOS009156836
          NCGC00091079-01
          NCGC00091079-02
          NCGC00257740-01
          NCGC00357147-01
          AS-47795
          CAS-100-80-1
          CAS-25013-15-4
          CS-0110437
          M0260
          NS00003045
          F16162
          Q2675854
          InChI=1/C9H10/c1-3-9-6-4-5-8(2)7-9/h3-7H,1H2,2H3
          3-Methylstyrene, 99%, contains 0.1% 3,5-di-tert-butylcatechol as inhibitor
          202-889-2
              
Solubility of 1-methyl-3-vinyl-benzene
1-methyl-3-vinyl-benzene, also known as p-methylstyrene, exhibits distinct solubility characteristics that are notable for both industrial and laboratory applications. Its behavior in various solvents can be summarized as follows:
In conclusion, understanding the solubility of 1-methyl-3-vinyl-benzene is essential for optimizing synthetic routes and developing various applications. Its preference for non-polar environments underscores a fundamental principle in chemistry: like dissolves like.