Essential Oils Club

Sage (Salvia officinalis)

Steam-distilledLeavesMediterraneanSeed to Seal quality

Sage is an herbaceous single oil with deep traditional roots, valued aromatically and as a component in women's-wellness blends.

How to use it

Safety. Sage contains thujone — avoid during pregnancy and with any seizure disorder, never use undiluted on skin, and keep diffusing sessions brief.
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In the diffuser

2–3 drops gives a grounding, herbaceous note — best in short, deliberate sessions.

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Use with care

Included in some grounding blends; dilute to a low percentage for any topical use.

Safety in detail

Max dermal use
Very low — high thujone content; many practitioners avoid leave-on skin use
Phototoxic
No
  • High in thujone, a neurotoxic ketone: avoid during pregnancy and with epilepsy or a seizure disorder, use only in low amounts, and keep away from children.
  • Do not confuse with clary sage (Salvia sclarea), which is gentle — common sage is the cautionary one.
  • Not phototoxic, but among the oils to use most sparingly.

Sources: Chalchat et al. (2000), Journal of Essential Oil Research

Composition & chemistry

Aggregated from 87 GC-MS samples across 23 peer-reviewed open-access studies (2017–2026). Figures are the distribution across those samples — median with interquartile range — not a single reading.

87 samples 23 papers 118 compounds 2017–2026 Strong evidence base
  • Oxygenated monoterpene 64.7%
  • Monoterpene hydrocarbon 24.3%
  • Sesquiterpene hydrocarbon 6.3%
  • Oxygenated sesquiterpene 2.7%
  • Unclassified 2%
ConstituentMedianTypical rangeMaxDetected in
camphor ↗ C10H16O 16.8% 8.1–21.1% 33.0%
α-thujone ↗ C10H16O 13.5% 8.0–21.2% 35.6%
1,8-cineole ↗ C10H18O 9.6% 5.8–16.5% 33.6%
β-thujone ↗ C10H16O 5.1% 2.5–9.2% 16.8%
α-pinene ↗ C10H16 3.8% 2.5–6.0% 26.3%
camphene ↗ C10H16 3.7% 2.4–7.6% 18.9%
viridiflorol ↗ C15H26O 3.3% 1.5–5.0% 12.2%
borneol ↗ C10H18O 2.7% 1.1–3.7% 10.7%
α-humulene ↗ C15H24 2.7% 1.5–5.7% 11.7%
β-pinene ↗ C10H16 2.1% 1.4–4.2% 8.4%
β-caryophyllene ↗ C15H24 2.1% 1.3–4.2% 23.1%
limonene ↗ C10H16 1.8% 1.1–3.3% 40.7%

+ 106 more compounds reported across the dataset.

23 peer-reviewed sources behind these figures
  1. Saadatian M, Hassani A, Ebrahimi SN. (2026). Vegetal protein hydrolysates mitigate NaCl salinity in Salvia officinalis by improving growth, nutrient status and essential oil yield. BMC plant biology. Europe PMC ↗ · DOI · CC BY-NC-ND · 15 samples
  2. Milenković L, Ilić ZS, Stanojević L, Šunić L, Milenković A, Tmušić N, Lalević D, Stanojević J, Cvetković D, Kevrešan Ž. (2026). Influence of Shading on Essential Oil Quantity and Quality of Sage (<i>Salvia officinalis</i> L.) at Different Harvest Times. Plants (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 12 samples
  3. Martínez-Francés V, Hahn E, Ríos S, Rivera D, Reich E, Vila R, Cañigueral S. (2017). Ethnopharmacological and Chemical Characterization of Salvia Species Used in Valencian Traditional Herbal Preparations. Frontiers in pharmacology. Europe PMC ↗ · DOI · CC BY · 12 samples
  4. Soltanbeigi E. (2026). Hydrodistillation time-dependent variations in the volatile oil characteristics of fresh and dried Salvia species. Scientific reports. Europe PMC ↗ · DOI · CC BY · 10 samples
  5. El Ayeb-Zakhama A, Ascrizzi R, Chahdoura H, Alhujaily M, Flamini G, Alotaibi SH, Harzallah-Skhiri F, Mnif W, Laarif A, Chaieb I. (2026). Essential Oil Formulations From <i>Salvia officinalis</i>, <i>Ormenis africana</i>, and <i>Mentha pulegium</i>: Chemical Profiles and Insecticidal Activity Against <i>Myzus persicae</i>. Food science & nutrition. Europe PMC ↗ · DOI · CC BY · 5 samples
  6. Kaya H, Kılıç S. (2026). Dose-dependent hormetic-like effects of green-synthesized AgNPs on Salvia officinalis: a biochemical and morphophysiological perspective. Scientific reports. Europe PMC ↗ · DOI · CC BY-NC-ND · 5 samples
  7. Tundis R, Leporini M, Bonesi M, Rovito S, Passalacqua NG. (2020). Salvia officinalis L. from Italy: A Comparative Chemical and Biological Study of Its Essential Oil in the Mediterranean Context. Molecules (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 3 samples
  8. Özliman S. (2026). Volatile compounds of volatile oils and hydrosols: intra-specific comparison in seven Lamiaceae species. BMC plant biology. Europe PMC ↗ · DOI · CC BY-NC-ND · 2 samples
  9. Mohammadi-Cheraghabadi M, Ghanati F, Karimi N, Ghorbanpour M, Hazrati S. (2025). Ornithine enantiomers modulate essential oil yield and constituents and gene expression of monoterpenes synthase in Salvia officinalis under well-watered and drought stress conditions. BMC plant biology. Europe PMC ↗ · DOI · CC BY-NC-ND · 2 samples
  10. Ait Elallem K, Ben Bakrim W, Yasri A, Boularbah A. (2024). Growth, Biochemical Traits, Antioxidant Enzymes, and Essential Oils of Four Aromatic and Medicinal Plants Cultivated in Phosphate-Mine Residues. Plants (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 2 samples
  11. EFSA Panel on Additives and Products or Substances used in Animal Feed (FEEDAP), Villa RE, Azimonti G, Bonos E, Christensen H, Durjava M, Dusemund B, Gehring R, Glandorf B, Kouba M, López-Alonso M, Marcon F, Nebbia C, Pechová A, Prieto-Maradona M, Röhe I, Theodoridou K, Bastos ML, Brantom P, Chesson A, Schlatter J, Westendorf J, Dirven Y, Manini P. (2024). Safety and efficacy of a feed additive consisting of an essential oil derived from the leaves of Salvia officinalis ssp. lavandulifolia (Vahl) Gams (Spanish sage oil) for use in all animal species (FEFANA asbl). EFSA journal. European Food Safety Authority. Europe PMC ↗ · DOI · CC BY-ND · 2 samples
  12. EFSA Panel on Additives and Products or Substances used in Animal Feed (FEEDAP), Villa RE, Azimonti G, Bonos E, Christensen H, Durjava M, Dusemund B, Gehring R, Glandorf B, Kouba M, López-Alonso M, Marcon F, Nebbia C, Pechová A, Prieto-Maradona M, Röhe I, Theodoridou K, Bastos ML, Brantom P, Chesson A, Schlatter J, Westendorf J, Manini P. (2024). Safety and efficacy of a feed additive consisting of an essential oil derived from the leaves of Salvia officinalis L. (sage oil) for use in all animal species (FEFANA asbl). EFSA journal. European Food Safety Authority. Europe PMC ↗ · DOI · CC BY-ND · 2 samples
  13. Maleš I, Dobrinčić A, Zorić Z, Vladimir-Knežević S, Elez Garofulić I, Repajić M, Skroza D, Jerković I, Dragović-Uzelac V. (2023). Phenolic, Headspace and Sensory Profile, and Antioxidant Capacity of Fruit Juice Enriched with Salvia officinalis L. and Thymus serpyllum L. Extract: A Potential for a Novel Herbal-Based Functional Beverages. Molecules (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 2 samples
  14. Maache S, Zbadi L, Ghouizi AE, Soulo N, Saghrouchni H, Siddique F, Sitotaw B, Salamatullah AM, Nafidi HA, Bourhia M, Lyoussi B, Elarabi I. (2023). Antioxidant and antimicrobial effects of essential oils from two salvia species with in vitro and in silico analysis targeting 1AJ6 and 1R4U proteins. Scientific reports. Europe PMC ↗ · DOI · CC BY · 2 samples
  15. Al-Mijalli SH, Assaggaf H, Qasem A, El-Shemi AG, Abdallah EM, Mrabti HN, Bouyahya A. (2022). Antioxidant, Antidiabetic, and Antibacterial Potentials and Chemical Composition of Salvia officinalis and Mentha suaveolens Grown Wild in Morocco. Advances in pharmacological and pharmaceutical sciences. Europe PMC ↗ · DOI · CC BY · 2 samples
  16. Tulukcu E, Cebi N, Sagdic O. (2019). Chemical Fingerprinting of Seeds of Some Salvia Species in Turkey by Using GC-MS and FTIR. Foods (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 2 samples
  17. Ciobotaru GV, Goje ID, Dehelean CA, Danciu C, Magyari-Pavel IZ, Moacă EA, Muntean D, Imbrea IM, Sărățeanu V, Pop G. (2025). Analysis of the Antioxidant and Antimicrobial Activity, Cytotoxic, and Anti-Migratory Properties of the Essential Oils Obtained from Cultivated Medicinal <i>Lamiaceae</i> Species. Plants (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 1 sample
  18. Khemili A, Bensizerara D, Chenchouni H, Gębarowski T, Bażanów B, Menasria T, Tomańska A, Chwirot A, Szumny A. (2025). In Vitro and In Silico Pharmacological Study of Three Combined Lamiaceae Essential Oils: Cytotoxicity and Antiviral Potential. Molecules (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 1 sample
  19. Sorca BV, Rosca AM, Kaya DA, Vatamanu SM, Albu Kaya MG, Dinu-Pîrvu CE, Ghica MV, Coman AE, Rusu LC, Titorencu I. (2025). Composites Based on Collagen, Chondroitin Sulfate, and Sage Oil with Potential Use in Dentistry. Biomimetics (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 1 sample
  20. Lanave G, Catella C, Catalano A, Lucente MS, Pellegrini F, Fracchiolla G, Diakoudi G, Palmisani J, Trombetta CM, Martella V, Camero M. (2024). Assessing the virucidal activity of essential oils against feline calicivirus, a non-enveloped virus used as surrogate of norovirus. Heliyon. Europe PMC ↗ · DOI · CC BY · 1 sample
  21. El-Mahrouk EM, Atef EA, Gabr MK, Aly MA, Mohamed AE, Eisa EA, Gururani MA. (2024). Response of Salvia officinalis to zinc and silicon nanoparticles and pollen extract as alternates to traditional fertilizers. Frontiers in plant science. Europe PMC ↗ · DOI · CC BY · 1 sample
  22. Ovidi E, Laghezza Masci V, Zambelli M, Tiezzi A, Vitalini S, Garzoli S. (2021). Laurus nobilis, Salvia sclarea and Salvia officinalis Essential Oils and Hydrolates: Evaluation of Liquid and Vapor Phase Chemical Composition and Biological Activities. Plants (Basel, Switzerland). Europe PMC ↗ · DOI · CC BY · 1 sample
  23. Galamatis D, Papadopoulos GA, Lazari D, Fletouris D, Petridou E, Arsenos GI, Fortomaris P. (2021). Effects of Dietary Supplementation of Salvia officinalis L. in Organic Laying Hens on Egg Quality, Yolk Oxidative Stability and Eggshell Microbiological Counts. Animals : an open access journal from MDPI. Europe PMC ↗ · DOI · CC BY · 1 sample

Every figure above traces to a named table in one of these open-access papers. How this was built →

Sage's association with clearing and cleansing rituals spans many cultures.

What the research says

An honest read of the published research — what has actually been studied, at what stage. Not medical advice or a promise of results.

  • Common sage oil is well characterised, with its thujone and camphor content central to both its chemistry and its safety cautions. Traditional 'clearing' and cognitive uses are preliminary and are outweighed for most people by the need to limit thujone exposure.

    Chalchat et al. (2000), Journal of Essential Oil Research

Evidence & sources

Peer-reviewed research on Sage's chemistry and safety. These describe composition and documented effects — not health or treatment claims.

  1. Common sage oil is dominated by α- and β-thujone plus camphor — the source of its strong aroma and its neurotoxic-related safety limits.

    Chalchat et al. (2000), Journal of Essential Oil Research

Frequently asked questions

Is sage oil the same as clary sage?

No, and the difference matters for safety. Common/Dalmatian sage (Salvia officinalis) is high in neurotoxic thujone and needs real caution; clary sage (Salvia sclarea) is ester-rich and gentle. Don't substitute one for the other. Chalchat et al. (2000), Journal of Essential Oil Research

Who should avoid common sage oil?

Because of its high thujone content, common sage should be avoided during pregnancy and by anyone with epilepsy or a seizure disorder, and kept away from children. Use it sparingly and consider clary sage as a gentler alternative. Chalchat et al. (2000), Journal of Essential Oil Research

Is sage oil phototoxic?

No — it isn't phototoxic. The real precaution is its thujone and camphor content, which calls for very conservative use.

Found in these blends

Sage is one of the oils inside 3 Young Living blends.

Ready to try Sage? Shop on Young Living →