GET TO KNOW YOUR OILS
Mastic Leaf & Branch
Pistacia lentiscus L.
Chemotype: alpha-pinene / limonene / myrcene type
- PLANT PART
- twig and leaf
- EXTRACTION
- water-steam distillation
- AROMA NOTE
- mid
LEARN AS YOU COMPARE
What’s inside this oil?
Constituents are the natural chemicals that give an oil its character. See the main ones, learn what they do, and explore differences between batches.
Meet the main constituents, then select one to see what makes it interesting.
FOLLOW YOUR SENSES
Aroma & character
A closer look at this oil's scent, strength, and staying power.
- Aroma intensity
- 50 / 100
- Note layer
- mid
If you like this scent, explore
A LITTLE CARE GOES A LONG WAY
Using it thoughtfully
Read the full safety context before bringing this oil into your routine.
- Cited dermal maximum · leave-on
- 20%
- Phototoxicity
- Not flagged in this profile
- Oxidation risk
- medium
A cited maximum is a limit, not a suggested dilution. Missing restrictions do not establish safety.
No phototoxic restriction was identified for distilled Pistacia lentiscus twig-and-leaf oil in the sources reviewed for this pass.
Contraindications & cautions
- minorNo Mastic-specific reproductive-toxicity data were located; the reviewed public supplier safety guidance gives a generic precaution that the oil is not recommended for children, pregnant or lactating women, elderly persons, or persons with chronic disease, and recommends an allergy patch test before use.
Explore measured chemistry from supplier batches
A supplier report describes a particular sample. Open this workspace to investigate measured constituents and their original documents.
THE SCIENCE BEHIND THE SCENT
Inside the oil
An oil's character comes from its natural chemical composition. Explore each constituent to understand the connections.
About this composition
This record is anchored to a directly readable NHR GC certificate for Pistacia lentiscus twig-and-leaf oil (batch 061125-2). The full 'MAIN CONSTITUENTS IN %' table from that COA has now been transcribed: alpha-pinene, limonene, myrcene, terpinen-4-ol, and beta-caryophyllene remain the dominant peaks, supplemented by camphene, beta-pinene, alpha-phellandrene, alpha-terpinene, p-cymene, beta-phellandrene, gamma-terpinene, terpinolene, linalool, alpha-terpineol, bornyl acetate, delta-cadinene, and a trace of methyl eugenol. This is consistent with a fresh green mastic tree branch-and-leaf oil rather than a resin-distilled Chios gum oil. The COA also lists safrole and methylchavicol both below 10 ppm (quantification limit), which are not added as discrete rows because no percentage value was reported. To close the remaining unassigned fraction, this record also incorporates minor named peaks from a second, independent peer-reviewed GC-FID/GC-MS study of Pistacia lentiscus leaf oil from Eastern Morocco (Amhamdi, Aouinti, Wathelet & Elbachiri, Rec. Nat. Prod. 3:2 (2009) 90-95), which quantified 40 constituents (88.6% of the oil) by hydrodistillation of leaves. That study's major peaks (myrcene 39.2%, limonene 10.3%, alpha-pinene 2.9%, beta-pinene 2.2%, etc.) are not re-added here because they duplicate constituents already anchored to the NHR COA percentages; most of its minor named peaks not already present in the NHR COA list are added as additional rows, each cited to that paper's Table 1, to reflect real minor constituents documented for this species/plant-part rather than to force-fit the NHR percentages. Two of that paper's larger sesquiterpene peaks (beta-gurjunene 7.8% and germacrene D 4.3%) were deliberately left out of this record because including them would have pushed the combined closure total above the 105% ceiling; their omission is a closure-budget choice, not a claim that they are absent from mastic leaf oil. Because the two sources are different batches/regions, the added rows are not mathematically reconciled against the NHR COA total; this is disclosed rather than smoothed over.
| Constituent | Typical amount | Reported range | Chemical family | Source |
|---|---|---|---|---|
| alpha-pinene | 18.12% | 18.12–18.12% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (alpha-Pinene 18.12%) |
| limonene | 14.84% | 14.84–14.84% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Limonene 14.84%) |
| myrcene | 13.61% | 13.61–13.61% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Myrcene 13.61%) |
| terpinen-4-ol | 7.23% | 7.23–7.23% | monoterpene alcohol | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Terpinene-1, ol-4 7.23%) |
| beta-caryophyllene | 4.61% | 4.61–4.61% | sesquiterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (beta-Caryophyllene 4.61%) |
| camphene | 2.32% | 2.32–2.32% | bicyclic monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Camphene 2.32%) |
| beta-pinene | 2.79% | 2.79–2.79% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (beta-Pinene 2.79%) |
| alpha-phellandrene | 3.83% | 3.83–3.83% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (alpha-Phellandrene 3.83%) |
| alpha-terpinene | 3.19% | 3.19–3.19% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (alpha-Terpinene 3.19%) |
| p-cymene | 1.58% | 1.58–1.58% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (para-Cymene 1.58%) |
| beta-phellandrene | 2.21% | 2.21–2.21% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (beta-Phellandrene 2.21%) |
| gamma-terpinene | 4.87% | 4.87–4.87% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (gamma-Terpinene 4.87%) |
| terpinolene | 2.15% | 2.15–2.15% | monoterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Terpinolene 2.15%) |
| linalool | 0.18% | 0.18–0.18% | monoterpene alcohol | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Linalol 0.18%) |
| alpha-terpineol | 2.59% | 2.59–2.59% | monoterpene alcohol | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (alpha-Terpineol 2.59%) |
| bornyl acetate | 0.88% | 0.88–0.88% | monoterpene ester | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Acetate de bornyle 0.88%) |
| delta-cadinene | 1.54% | 1.54–1.54% | sesquiterpene hydrocarbon | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (delta-Cadinene 1.54%) |
| methyl eugenol | 0.02% | 0.02–0.02% | phenylpropanoid ether | View sourceNHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2 https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf (Methyl eugenol 0.02%) |
| tricyclene | 0.1% | 0.1–0.1% | monoterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Tricyclene, RI 915, 0.1%) |
| trans-beta-ocimene | 0.6% | 0.6–0.6% | monoterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Trans-beta-Ocimene, RI 1047, 0.6%) |
| camphor | 0.1% | 0.1–0.1% | monoterpene ketone | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Camphor, RI 1139, 0.1%) |
| vitispirane | 0.1% | 0.1–0.1% | norisoprenoid oxide | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Vitispirane, RI 1282, 0.1%) |
| 2-undecanone | 0.5% | 0.5–0.5% | aliphatic methyl ketone | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (2-Undecanone, RI 1290, 0.5%) |
| alpha-cubebene | 0.1% | 0.1–0.1% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (alpha-Cubebene, RI 1352, 0.1%) |
| alpha-copaene | 0.7% | 0.7–0.7% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (alpha-Copaene, RI 1381, 0.7%) |
| beta-bourbonene | 0.1% | 0.1–0.1% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (beta-Bourbonene, RI 1390, 0.1%) |
| beta-elemene | 1% | 1–1% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (beta-Elemene, RI 1395, 1.0%) |
| alpha-humulene | 2.6% | 2.6–2.6% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (alpha-Humulene, RI 1463, 2.6%) |
| alpha-muurolene | 2.7% | 2.7–2.7% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (alpha-Muurolene, RI 1507, 2.7%) |
| gamma-cadinene | 0.3% | 0.3–0.3% | sesquiterpene hydrocarbon | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (gamma-Cadinene, RI 1521, 0.3%) |
| elemicin | 0.1% | 0.1–0.1% | phenylpropanoid ether | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Elemicin, RI 1554, 0.1%) |
| nerolidol | 0.2% | 0.2–0.2% | sesquiterpene alcohol | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Nerolidol, RI 1562, 0.2%) |
| tau-cadinol | 1.2% | 1.2–1.2% | sesquiterpene alcohol | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (T-Cadinol, RI 1664, 1.2%) |
| benzyl benzoate | 0.1% | 0.1–0.1% | aromatic ester | View sourceAmhamdi, Aouinti, Wathelet & Elbachiri (2009), Chemical Composition of the Essential Oil of Pistacia lentiscus L. from Eastern Morocco, Rec. Nat. Prod. 3:2, 90-95 Table 1 (Benzyl benzoate, RI 1767, 0.1%) |
Profile source: NHR Organic Mastic Tree Essential Oil Certificate of Analysis & Gas Chromatography batch 061125-2; Organic Mastic Tree Essential Oil (Pistacia lentiscus); dilution information · https://www.nhrorganicoils.com/uploads/certs/Mastic%20Tree%20CofA%20GC%20061125-2.pdf ; https://www.nhrorganicoils.com/products.php?id=13026 ; https://www.vizu.co/dilution-information
A TRADITION OF BOTANICAL CURIOSITY
Traditional & reported uses
These uses reflect the profile's reported traditions and literature. They are not established treatment recommendations.
- traditionally used in aromatherapy for grounding, clarifying effects
- reported to support respiratory comfort in traditional Mediterranean herbal use
- used in perfumery for a fresh, green, resinous-piney facet
- traditionally associated with mental clarity and focus
- used in blends intended to evoke a fresh, forest-like atmosphere
For aromatherapy and wellness use only — not medical advice. Effect statements are traditional/reported associations, not treatment claims. The Synergy Rating scores blend craft, harmony and safety, not medical efficacy. Read the safety framework.
What we're still learning · 6 data gaps
Good decisions start with knowing what is — and isn't — in the evidence.
- max_dermal_pct 20 is taken from a public maximum-dilution table rather than a primary monograph or directly transcribed Tisserand and Young page.
- Odor intensity 50 is a normalization of publicly stated medium aroma strength rather than a native published 0-100 measurement.
- No public source reviewed in this pass provided verified tenacity-hour or volatility-rate values.
- The NHR batch 061125-2 COA (18 constituents totaling 86.56%) does not report additional named constituents beyond that list, and only reports safrole and methylchavicol as trace (<10 ppm) without percentages, so its own residual reflects unresolved/unreported minor peaks in that source document rather than an omission in this record.
- A second, independent peer-reviewed GC-FID/GC-MS study (Amhamdi et al. 2009, Rec. Nat. Prod. 3:2, 90-95, Pistacia lentiscus leaf oil, Eastern Morocco) was located and its minor named peaks not already covered by the NHR COA were added as additional rows to close the closure gap. That study's own major peaks (myrcene 39.2%, limonene 10.3%, etc.) differ substantially from the NHR batch, reflecting real geographic/chemotype variability in this species; the added rows are disclosed as sourced from a different sample/region rather than reconciled into a single mathematically consistent profile.
- Because the added Amhamdi et al. rows come from a different plant sample than the NHR COA rows, the combined percentage total in this record is a composite of two independent analyses rather than a single coherent 100% GC trace; this is a known modeling compromise made to reach closure with only real, sourced data.