Perflavory
Typical G.C. analysis
salvia officinalis seed oil tunisia
GC Analyses of Salvia Seeds as Valuable Essential Oil Source Mouna Ben Taârit, Kamel Msaada, Karim Hosni, and Brahim Marzouk1 1Laboratoire des Substances Bioactives, Centre de Biotechnologie, Technopôle de Borj-Cédria, BP 901, 2050 Hammam-Lif, Tunisia 2Laboratoire des Substances Naturelles, Institut National de Recherche et d’Analyse Physico-Chimique (INRAP), Sidi Thabet, 2020 Ariana, Tunisia
#%LeftshiftComponents
1470.47alpha- amorphene
1461.43allo- aromadendrene
1620.18  aromadendrene
1751.29  bicyclogermacrene
1740.72beta- bisabolene
1163.54  borneol
1590.16  bornyl acetate
1510.08gamma- cadinene
1510.53delta- cadinene
2180.15T- cadinol
 0.41alpha- cadinol
15313.08  camphor
1150.03delta-3- carene
1290.83  carvacrol
1610.19beta- caryophyllene
1570.16  caryophyllene oxide
1036.661,8- cineole
1490.01alpha- copaene
1490.34epi- cubebol
1180.17para- cymen-8-ol
1021.52para- cymene
1380.06beta- damascenone
1380.16beta- elemene
1330.07delta- elemene
 0.47beta- eudesmol
1350.83  eugenol
1500.24(E,E)-alpha- farnesene
1141.01 geigerene
1850.33  geraniol
1850.08  germacrene B
1721.18  germacrene D
8781.29  hexanol
1453.71alpha- humulene
1600.25  humulene oxide II
1550.68  linalool
1070.13(Z)- linalool oxide
1230.08  linalyl acetate
 2.2213-epi- manool
1400.18  methyl eugenol
1190.28  myrtanol
1190.55  myrtenal
1561.41(E)- nerolidol
1380.14(Z)-allo-ocimene
9391.26alpha- pinene
1060.19(Z)- sabinene hydrate
1210.18(Z)- sabinol
1570.08  spathulenol
1170.09  terpinen-4-ol
1700.91alpha- terpineol
1182.42delta- terpineol
1701.81alpha- terpinyl acetate
1033.08alpha- thujene
11014.77alpha- thujone
1114.30beta- thujone
1290.37  thymol
1010.23  tricyclene
1100.48  undecane
1592.66  viridiflorol
1490.04alpha- ylangene
Overall, it emerges that tricyclene and camphor were biochemical markers of the essential oil of S. verbenaca seeds. Being rich in camphor, seeds could be used as antimicrobial agent. Another point that should be highlighted is that S. officinalis seeds had the same a-thujone chemotype as leaves, whereas these two organs showed some quantitative differences leading to the safe use of seeds essential oil in food industry. From a qualitative standpoint, seeds of S. sclarea seemed to have the same enzymatic trend as flowers characterized by the prevalence of linalool. It is noteworthy to mention that linalool-producing seeds as S. sclarea were suitable for flavouring purposes and constitute potential anti-inflammatory agents.
salvia plebeia oil
Chemical Composition of Salvia plebeian R.Br. Essential Oil and its Larvicidal Activity against Aedes aegypti L Shanliang Zhu, Xin Chao Liu, Zhi Long Liu* and Xiaofeng Xu
#%LeftshiftComponents
1060.21  acetophenone
1441.22  aromadendrene
1170.55  borneol
1280.50  bornyl acetate
1675.28  cadalene
1515.30gamma- cadinene
16410.21T- cadinol
1655.08alpha- cadinol
1542.75alpha- calacorene
1529.63  calamenene
1140.08  camphor
1400.91(Z)- caryophyllene
1420.88  caryophyllene
15815.54  caryophyllene oxide
1030.181,8- cineole
1375.70  copaene
1342.88alpha- cubebene
1380.62beta- cubebene
1530.88  cubenene
1360.11  cyclosativene
1541.16  elemol
16314.04gamma- eudesmol
1350.78  eugenol
1080.16  fenchone
1560.27  germacrene B
1565.14  ledol
1090.48  linalool
1070.19(Z)- linalool oxide
1471.84gamma- muurolene
1505.19alpha- muurolene
9910.11  myrcene
1570.21  spathulenol
1370.24  ylangene
salvia verbenaca seed oil tunisia
GC Analyses of Salvia Seeds as Valuable Essential Oil Source Mouna Ben Taârit, Kamel Msaada, Karim Hosni, and Brahim Marzouk1 1Laboratoire des Substances Bioactives, Centre de Biotechnologie, Technopôle de Borj-Cédria, BP 901, 2050 Hammam-Lif, Tunisia 2Laboratoire des Substances Naturelles, Institut National de Recherche et d’Analyse Physico-Chimique (INRAP), Sidi Thabet, 2020 Ariana, Tunisia
#%LeftshiftComponents
1661.29allo- aromadendrene
1430.66  aromadendrene
1501.10beta- bisabolene
1280.79  bornyl acetate
1381.73beta- bourbonene
11438.94  camphor
1010.50delta-3- carene
1410.27beta- caryophyllene
1577.28  caryophyllene oxide
1411.50beta- cubebene
1280.37para- cymene
1333.97delta- elemene
1643.76beta- eudesmol
1441.76(Z)-beta- farnesene
1080.26alpha- fenchone
8000.42  hexanal
1680.67alpha- humulene
1550.84  linalool
1451.05(E)- linalool oxide
1562.53  linalyl acetate
 5.6113-epi- manool
1470.05gamma- muurolene
1362.40  neryl acetate
1111.55(Z)-allo-ocimene
1030.44alpha- pinene
1170.88  terpinen-4-ol
1182.03alpha- terpineol
1680.49delta- terpineol
1354.77alpha- terpinyl acetate
1420.52alpha- thujone
9270.96  tricyclene
1102.65  undecane
it emerges that tricyclene and camphor were biochemical markers of the essential oil of S. verbenaca seedsOverall,. Being rich in camphor, seeds could be used as antimicrobial agent. Another point that should be highlighted is that S. officinalis seeds had the same a-thujone chemotype as leaves, whereas these two organs showed some quantitative differences leading to the safe use of seeds essential oil in food industry. From a qualitative standpoint, seeds of S. sclarea seemed to have the same enzymatic trend as flowers characterized by the prevalence of linalool. It is noteworthy to mention that linalool-producing seeds as S. sclarea were suitable for flavouring purposes and constitute potential anti-inflammatory agents.
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