Lavandula Essential Oils: Applications in Medical, Pharmaceutical, Food, and Cosmetic Industries



The global market for essential oils has risen steadily over the past few years and is expected to reach around $ 7.5 billion a year by 2018. Lavanda (Lavandula, the Lamiaceae family) contributes significantly to this market, producing about 1500 tons of essential oils that are mainly used in cosmetics, personal care products and medicines. The objective of the exhaustive study was to research the recent literature on these preparations, which also shows that these oils can have applications in food preservation and pest control, among others. The material used was a substantial part of the current research, which we analyzed, focusing on assessing the biological activities of essential oils of lavender. The method was to describe the medicinal and pharmaceutical properties of lavender species, mainly due to their essential oils, especially the principal constituents of the essential oil: linalool and linalyl acetate, although certain activities were attributed to phenolic compounds. In addition, we have demonstrated that there is evidence that certain major and minor constituents of the essential oil act synergistically to produce various effects. The results recommend the potential use of these oils in traditional and complementary medicine, food systems, cosmetic formulations and perfumes as well as in insecticides and fungicides. In conclusion, this paper examines recent advances in these areas and highlights the current and future implications for these valuable economic and medical plants.


Tablet of Contents:

1. Introduction

2. Cultivation and Selection of Lavenders

3. Chemical Composition of Lavender Extracts

4. Biosynthesis of Lavenders Essential Oil Constituents

5. Lavandula Product Availability

6. Applications of Lavandula Essential Oils in Aromatherapy

7. Lavandula Essential Oils in the Cosmetic Industry

8. Conclusion


1. Introduction

Although native to the Mediterranean region lavenders are commercially grown around the world (e.g., in Bulgaria, France,Spain, Portugal, the United Kingdom, China, Australia, and the United States), primarily for their essential oils [1]. Lavender essential oils have been used in cosmetics, and medicinal preparations since the Greek and Roman era, and are now being considered for use in areas such as alternative medicine, food preservation, and pest control, among others. Most studies have focused on the two main constituents of most lavender essential oils (linalool and linalyl acetate), although other less abundant essential oil constituents (e.g., camphor, 1,8-cineole, carvacrol, etc.) have also been evaluated.

From the existing 39 lavender species, the most commonly cultivated and researched species include L. angustifolia, L.latifolia, and L. x intermedia. A significant amount of research also being conducted on L. stoechas and L. luisieri [2, 3]. Numerous cultivars have arisen from standard breeding experiments [2]. More recently, research efforts have focused on increasing oil yield and quality in these plants through metabolic engineering and other molecular techniques [4-6]. With a 2018 projected global market value of $7.47 USD and an increase in demand for natural products, the essential oil industry has become increasingly important with a 5.93% Compound Annual Growth Rate (CAGR) since 2013 [7]. Lavandula essential oils contribute largely to this growing industry with approximately 1500 tons produced annually for use in a variety of settings. In 2013, Bulgaria was the top oil producer, generating 100 tons of oil from 3700 hectares and France in second with oil production of 40 tons per year from 3500 hectares of plants [8].


2. Cultivation and Selection of Lavenders

Lavenders originate from the Mediterranean region, and today, are diversified and distributed around the world. Although limited reports are available on agronomic practices, a variety of lavender species grow well in a wide range of climatic conditions, most preferably in full sun-light and well- drained soils with little organic matter [2, 3]. Despite the fact that some lavender species can tolerate certain climatic stresses (e.g. heat, drought, wind & frost), sufficient agronomic practices, such as fertilizer, irrigation, pruning, weeds control and others, are required for optimum establishment and maximum commercial production [2, 3, 9, 10]. Most of the lavender species reproduce by seeds and/or clonal reproduction mechanisms; however, due to plant uniformity for large-scale production of essential oil, cut flowers and pot plants, and other technicalities, the majority of lavenders growers and gardener nurseries around the globe prefer clones rather than seedderived seedlings [2, 3, 10].

This approach is also useful for propagation of sterile hybrid lavenders, e.g. L. x.intermedia, which lack fertile seeds. Some lavender species, e.g. L. angustifolia varieties- Hidcote and Munstead, are propagated by both seeds and clones [3]. In addition, variation in different traits, e.g. plant growth habit, flower color and essential oil composition, can be observed in plants originating from seeds, which eventually influence the commercial quality, uniformity and harvesting periods [3, 10]. From the over 39 lavender species identified, only a few, in particular L. angustifolia, L. x intermedia and L. latifolia, have been widely used for commercial cultivation [2, 3, 9, 11]. The suitable cultivars have so far been chosen mainly based on their flowering season (early, mid or late season), oil yield and oil quality. In this context, most L. x intermedia cultivars (e.g. Grosso) produces large biomass with high yields of flowers and oils which can be the preferable species for maximum production. L. angustifolia cultivars (e.g. Hidcote) consist of short-stemmed flowers producing low biomass with low yields of flowers and oils, but are well known by the high quality of the oils [2, 3, 11]. It should be noted that the phenotypic traits and biochemical compositions of the cultivars can be influenced by several environmental cues, including soil type, temperature and light [12]. Identification techniques for lavender species/cultivars are mostly limited to morphological traits and metabolite profiling in most commercial farms and nurseries. Recently, good progress has been started on the development of markers such as microsatellites and metabolomic markers for the identification of lavenders [13, 14].


3. Chemical Composition of Lavender Extracts

Lavenders are especially known for their essential oil (EO), which is comprised of over 50 mono- and sesquiterpene constituents. The main EO constituents include linalool, linalyl acetate, borneol, and 1,8-cineole (Fig. 1) [15, 2]. The exact constituent abundance (ie. EO composition) is primarily determined by the species, although plant health, climatic season differences, harvest time, and post- harvest processing can also have effects on oil composition, as well as essential oil extraction method used also affect essential oil composition [16, 17-20].

Immagine 1

All Lavandula species also accumulate phenolic acids, which contribute to the bioactivity of aqueous lavender extracts. The most prominent phenolic acids reported in Lavandula include ferulic acid, rosmarinic acid, p-coumaric acid, caffeic acid and 2-Oglucosilcoumaric acid [25, 29, 30]. The phenolic compounds of lavender have been primarily investigated for their antioxidant effects, demonstrating a positive correlation of content of phenolic acids to antioxidant levels [31].


4. Biosynthesis of Lavenders Essential Oil Constituents

There Lavenders produce and store EO in specialized structures known as glandular trichomes, or oil glands [32]. In these structures six to eight secretory cells are specialized to produce and secrete EO constituents (a mixture of mono- and sesquiterpenes) into a subcuticular storage cavity [33, 34].

Like other terpenoids, lavender EO constituents are derived from isopentenyl diphosphate (IPP) and its isomer dimethylallyl diphosphate (DMAPP) derived from both the Mevalonate (MVA) or cytosolic pathway, and the 2-Cmethyl-D-erythritol 4-phosphate (MEP) or plastidial pathway of terpenoid metabolism [32, 34-38].

Like other terpenoids, lavender EO constituents are derived from isopentenyl diphosphate (IPP), and its isomer dimethylallyl diphosphate (DMAPP) derived from both the Mevalonate (MVA) or cytosolic pathway, and the 2-C-methyl-D-erythritol 4-phosphate (MEP) or plastidial pathway of terpenoid metabolism [32, 34-38]. Both pathways initially give rise to linear isoprenoid precursorsgeranyl diphosphate (GPP), farnesyl diphosphate (FPP) and geranyl diphosphate (GGPP).

The MVA pathway predominantly found in animals and fungi as well as in the cytoplasm of phototropic organisms. Precursors produced through this pathway are mainly converted to FPP to synthesize sesquiterpenes, and triterpenes [39-42]. The MEP pathway, present in most bacteria and in plant chloroplasts, provides precursors for the biosynthesis of GPP and GGPP that are ultimately used to produce monoterpenes and diterpenes, respectively [43-45].

Mono- and sesquiterpenes are derived from GPP and FPP, respectively, by the activity of various terpene synthases (sometimes called cyclases) [43]. Some monoterpenes, such as camphor and linalool acetate, are further modified through acetylation, oxidation or, reduction reactions.

Camphor is produced from borneol by the action of a short chain alcohol dehydrogenase and linalool acetate is produced from linalool by the linalool acetyltransferase enzyme [46, 47]. Two intermediate cationic forms, such as farnesyl cation and its isomer nerolidyl cation, are produced by sesquiterpene synthases before any rearrangement occurs for stable compounds similar to monoterpene biosynthesis [43, 48].


5. Lavandula Product Availability

The versatility and therapeutic benefits of lavenders have led to its application in a variety of products. These products are produced and available worldwide from home businesses and smallscale hobby farms to large scale farms with mass essential oil production for industry use.

Products containing lavenders and their essential oils are distributed globally in boutiques, grocery stores, farmers’s markets, home stores and in online stores. Lavender essential oils and aqueous extracts are commonly used in a variety of bath and body products such as lotions, soaps and bath gels, in skin care items including cleansers, toners, moisturizers, masks, and facial creams, and in a variety of household and culinary products. Main methods of administration include topical and inhalation, although ingestion is common with various culinary products and medications.


6. Applications of Lavandula Essential Oils in Aromatherapy

Aromatherapy, refers the medicinal use of plant essential oils and fragrant extracts in a variety of clinical settings, including mood augmentation, treatment and prevention of disease and disease symptoms, sleep and cognitive improvement, and pain relief [49, 50, 51]. Administration by inhalation and massage are the most common methods of treatment used in aromatherapy.

Lavandula essential oils, inhaled or massaged into the skin, are absorbed and enter the bloodstream, with linalool and linalyl acetate constituents apparent in the blood, thus implicating that benefits of aromatherapy may be due to essential oil constituents entering the bloodstream [52].

Aromatherapy has become increasingly popular as naturopathic and complementary medicine become more prevalent, and although there is evidence for positive effects of aromatherapy in some cases, further research is required to determine the efficacy of the essential oil in more specific scenarios [50]. As such, due to its analgesic properties, lavender essential oil aromatherapy has been studied in a wide array of settings and has proven to have some promising positive effects.


7. Lavandula Essential Oils in the Cosmetic Industry

Essential oils have been commonly used in cosmetics for their pleasing aromas in products such as moisturizers, sunscreen, lotions, shampoos, bath and body products, soaps and perfumes, for centuries [113]. Recent evidence suggests that essential oils may have other functions in cosmetics as well [114]. Several studies have shown that Lavandula essential oils have efficacy as natural preservatives in cosmetics and personal care products. Due to the nutrient-rich nature of cosmetics, which commonly contain ingredients such as lipids, polysaccharides, amino acids, proteins, alcohol, glucosides, peptides, esteroids, and vitamins, increased microbial growth of a wide array of pathogens is evident in such products [115]. Microbial growth in topical cosmetics presents danger to consumers due to transmission of pathogens, as well as product spoilage and quality issues due to pathogen- produced metabolites [116]. As such, chemical preservatives are necessary and widely used in cosmetics. Chemical preservatives are a common cause of allergic reactions to cosmetic users; however, they are necessary to preserve product quality and integrity throughout the manufacturing process and in maintaining product shelf life. Many preservatives which are widely used in cosmetics, such as parabens, can have adverse effects on human health, thus emphasizing the need for natural preservatives as alternatives [117]. Due to the increasing demand for more natural products with less chemical preservatives and decreased side effects, research for alternatives continues.

Lavandula essential oils have the potential for use in cosmetics as a natural preservative, possibly replacing synthetic preservatives; they may also be used in combination with other preserving agents to synergistically reduce the amount of harmful chemicals used in cosmetics [114, 118, 119]. For example, Lavandula essential oils have shown antimicrobial effects in reducing oral malodor, preservative effects in washing liquid and soft body balms, as well as in aqueous creams [120-122].

The use of mircoencapsulation techniques of these oils is common, and has proven to be effective in lengthening the effects of the essential oils by protecting ingredients from heat, light, and moisture and preventing volatilization of the aromatics [114, 123]. Hydrosols of L. angustifolia and other Lavandula species have also proven to have potential as cosmetic preservative additives as they display antioxidant, antimicrobial and antifungal properties, they require no dilution, their use would be economically and environmentally favorable, and as such, they would be effective in maintaining cosmetic microbiological integrity and shelf life [124, 8]. When utilizing oil in products intended for topical use, however, important considerations of the amount of essential oil must be considered as high levels of essential oil will be effective in terms of antimicrobial activity, but increases the risk of skin irritation and an overpowering aroma [121]. Although Lavandula essential oils have shown promise as natural cosmetic additives, adverse side effects from usage have also been observed.

Previous studies have shown extracts of L. officinalis and other plants to cause contact allergies in patients with cosmetic dermatitis [125, 126]. Pure linalool and linalyl acetate, which are present in a variety of cosmetic products, have specifically been shown to cause contact dermatitis [127].

These constituents, which are commonly used for their aroma, have the tendency to oxidize upon air exposure, which transforms them from weak sensitizing agents to moderate sensitizing agents capable of causing frequent dermal contact reactions as strong fragrance allergens [128, 129]. As such, although Lavandula essential oils have potential for use in cosmetics, stringent ingredient labelling and allergen information should be available to consumers to prevent allergic reactions.


8. Conclusion

The present review focuses on recent advances in the study of Lavandula essential oils and phenolic compounds. Topics addressed include the commercial applications of Lavandula essential oils in the pharmaceutical and cosmetic industries as well as medicinal applications of Lavandula essential oils as antifungals, antioxidants, anti-inflammatory agents and their use in aromatherapy.


The authors:

ANDREI Felicia [1]

GRUJIC Daciana [2]

ERSILIA Alexa [3]

TULCAN Camelia [4]

LAZAR Cristina [1]

OLTEANU Claudia [1]


[1] Faculty of Farmacy, Department of Dermatopharmacy and Cosmetology, Victor Babes University of Medicine and Farmacy, Timisoara (ROMANIA)

[2] Faculty of Medicine, Department of Plastic Surgery, University of Medicine and Pharmacy Victor Babes”, Timisoara (ROMANIA)

[3] Faculty of Food Processing, Banat’s University of Agricultural Sciences and Veterinary Medicine King Michael I of Romania from Timisoara (ROMANIA)

[4] Faculty of Veterinary Medicine, Banat’s University of Agricultural Sciences and Veterinary Medicine King Michael I of Romania” from Timisoara (ROMANIA)


Contributo selezionato da Filodiritto tra quelli pubblicati nei Proceedings “17th Romanian National Congress oh Pharmacy – 21st Century Pharmacy – Between Intelligent Specialization and Social Responsibility - 2018”

Per acquistare i Proceedings clicca qui.


Contribution selected by Filodiritto among those published in the Proceedings “17th Romanian National Congress oh Pharmacy – 21st Century Pharmacy – Between Intelligent Specialization and Social Responsibility - 2018”

To buy the Proceedings click here.


1.    Ziaee M, Khorrami A, Ebrahimi M, Nourafcan H, Amiraslanzadeh M, Rameshrad M, Garjani M, Garjani A. (2015) Cardioprotective effects of essential oil of Lavandula angustifolia on isoproterenol-induced acute myocardial infarction in rat. Iranian Journal of Pharmaceutical Research, 14, pp. 279-289.

2.    Lis-Balchin M. (2002) Lavender: The genus Lavandula. (1st ed.). Taylor and Francis Inc New York, NY.

3.    Upson T, Andrews S. (2004) The genus Lavandula. (1st ed.). Timber Press, Inc., USA.

4.    Mendoza-Poudereux I, Muñoz-Bertomeu J, Navarro A, Arrillaga I, Segura J. (2014) Enhanced levels of S- linalool by metabolic engineering of the terpenoid pathway in spike lavender leaves. Metabolic Engineering, 23, pp. 136-144.

5.    Moz-Bertomeu J, Arrillaga I, Ros R, Segura J. (2006) Up-regulation of 1-deoxy-D-xylulose-5-phosphate synthase enhances production of essential oils in transgenic spike lavender. Plant Physiology, 142, pp. 890-900.

6.    Moz-Bertomeu J, Sales E, Ros R, Arrillaga I, Segura J. (2007) Up-regulation of an N-terminal truncated 3- hydroxy-3-methylglutaryl CoA reductase enhances production of essential oils and sterols in transgenic Lavandula latifolia. Plant Biotechnology Journal, 5, pp. 746-775.

7.    Technavio Insights. Global Flavors and Fragrances Market” Factiva, 2014: 1-76. Web. 3 July 2015.

8.    Lesage-Meessen L, Bou M, Sigoillot JC, Faulds CB, Lomascolo A. (2015) Essential oils and distilled straws of lavender and lavandin: A review of current use and potential application in white biotechnology. Applied Microbiology and Biotechnology, 99, pp. 3375-3385.

9.    RIRDC (2005) The Australian lavender industry – A review of oil production and related products, revised version, publication 02/052, pp. 6-10.

10. Adam KL. (2006) Lavender production, products, markets, and entertainment farms, ATTRA

11. Kara N, Baydar H. (2013) Determination of lavender and lavandin cultivars (Lavandula sp.) containing high quality essential oil in Isparta, Turkey. Turkish Journal of Field Crops, 18, pp. 58-65.

12. Munoz-Bertomeu J, Arrillaga I, Segura J. (2007) Essential oil variation within and among natural populations of Lavandula latifolia and its relation to their ecological areas. Biochemical Systematics and Ecology, 35, pp. 479-488.

13. Adal AM, Demissie ZA, Mahmoud SS. (2015) Identification, validation and cross-species transferability of novel Lavandula EST-SSRs. Planta,24, pp. 987-1004.

14. Lafhal S, Vanloot P, Bombarda I, Kister J, Dupuy N. (2016) Chemometric analysis of French lavender and lavandin essential oils by near infrared spectroscopy. Industrial Crops and Products, 80, pp. 156-164.

15. Śmigielski KZ, Prusinowska R, Krosowiak K, Sikora M. (2013) Comparison of qualitative and quantitative chemical composition of hydrolate and essential oils of lavender (lavandula angustifolia). Journal of Essential Oil Research, 25, pp. 291-299.

16. Danh LT, Triet NDA, Han LTN, Zhao J, Mammucari R. (2012) Antioxidant activity, yield and chemical composition of lavender essential oil extracted by supercritical CO2. The Journal of Supercritical Fluids, 70, pp. 27-34.

17. Ghoreishi SM, Kamali H, Ghaziaskar HS, Dadkhah AA. (2012) Optimization of Supercritical extraction of linalyl acetate from lavender via boxbehnken design. Chemical Engineering & Technology, 35, pp. 1641-1648.

18. Kamali H, Aminimoghadamfarouj N, Golmakani E, Nematollahi A. (2014) The optimization of essential oils supercritical CO2 extraction from lavandula hybrida through static-dynamic steps procedure and semi- continuous technique using response surface method. Pharmacognosy Research, 7, pp. 57-65.

19. Zheljazkov VD, Astatkie T, Hristov AN. (2012) Lavender and hyssop productivity, oil content, and bioactivity as a function of harvest time and drying. Industrial Crops & Products, 36, pp. 222-228.

20. Zheljazkov VD, Cantrell CL, Astatkie T, Jeliazkova E. (2013) Distillation time effect on lavender essential oil yield and composition. Journal of Oleo Science, 62, pp. 195-199.

21. Benabdelkader T, Guitton Y, Pasquier B, Magnard JL, Jullien F, Kameli A, Legendre L. (2014) Functional characterization of terpene synthases and chemotypic variation in three lavender species of section stoechas. Physiologia Plantarum, 153, pp. 43-57.

22. Dadalioglu I, Evrendilek GA. (2004) Chemical compositions and antibacterial effects of essential oils of Turkish oregano (origanum minutiflorum), bay laurel (laurus nobilis), spanish lavender (lavandula stoechas L.), and fennel (foeniculum vulgare) on common foodborne pathogens. Journal of Agricultural and Food Chemistry, 5, pp. 8255-8260.

23. Herraiz-Peñalver D, Cases MÁ, Varela F, Navarrete P, Sánchez-Vioque R, Usano-Alemany J. (2013) Chemical characterization of lavandula latifolia medik. essential oil from spanish wild populations. Biochemical Systematics and Ecology, 46, pp. 59-68.

24. Matos F, Miguel MG, Duarte J, Venâncio F, Moiteiro C, Correia AID, Figueiredo AC, Barroso JG, Pedro LG. (2009) Antioxidant capacity of the essential oils from lavandula luisieri, l. stoechas subsp. lusitanica, l. stoechas subsp. lusitanica x l. luisieri and l. viridis grown in algarve (portugal). Journal of Essential Oil Research, 21, pp. 327-336.

25. Spiridon I, Colceru S, Anghel N, Teaca CA, Bodirlau R, Armatu A. (2011) Antioxidant capacity and total phenolic contents of oregano (origanum vulgare), lavender (lavandula angustifolia) and lemon balm (melissa officinalis) from romania. Natural Product Research, 25, pp. 1657-1661.


177.Inan M, Kaya D, Albu M. (2013) The effect of lavender essential oils on collagen hydrolysate. Revista De Chimie, 64, pp. 1037-1042.

178.Kunicka-Styczyńska A, Sikora M, Kalemba D. (2009) Antimicrobial activity of lavender, tea tree and lemon oils in cosmetic preservative systems. Journal of Applied Microbiology, 107, 19031911.

179.Sterer N, Nuas S, Mizrahi B, Goldenberg C, Weiss EI, Domb A, Davidi MP. (2008) Oral malodor reduction by a palatal mucoadhesive tablet containing herbal formulation. Journal of Dentistry, 36, 535-539.

180.Kunicka-Styczyńska A, Sikora M, Kalemba D. (2011) Lavender, tea tree and lemon oils as antimicrobials in washing liquids and soft body balms.International Journal of Cosmetic Science, 33, 53-61.

181.Muyima NYO, Zulu G, Bhengu T, Popplewell D. (2002) The potential application of some novel essential oils as natural cosmetic preservatives in an aqueous cream formulation. Flavour and Fragrance Journal, 17, 258-266.

182.Rodrigues Teixeira CSN, Martins IMD, Mata VLG, Barreiro MFF. (2011) Characterization and evaluation of commercial fragrance microcapsules for textile application. The Journal of The Textile Institute, 103, 269-282.

183.Kunicka-Styczyńska A, Śmigielski K, Prusinowska R, Rajkowska K, Kuśmider B, Sikora M. (2015) Preservative activity of lavender hydrosols in moisturizing body gels. Letters in Applied Microbiology, 60, 27-32.

184.Sugiura M, Hayakawa R, Kato Y, Sugiura K, Hashimoto R. (2000) Results of patch testing with lavender oil in Japan. Contact Dermatitis, 43, 157-160.

185.Thomson KF, Wilkinson SM. (2000) Allergic contact dermatitis to plant extracts in patients with cosmetic dermatitis. British Journal of Dermatology, 142, pp. 84-88.

186.Rastogi SC, Heydorn S, Johansen JD, Basketter DA. (2001) Fragrance chemicals in domestic and occupational products. Contact Dermatitis, 45, pp. 221-225.

187.Hagvall L, Berglund V, Bråred Christensson J. (2015) Air-oxidized linalyl acetate – an emerging fragrance allergen? Contact Dermatitis, 72, pp. 216-223.

188.Sköld M, Hagvall L, Karlberg AT. (2008) Autoxidation of linalyl acetate, the main component of lavender oil, creates potent contact allergens. Contact Dermatitis, 58, pp. 9-14.