|Year : 2019 | Volume
| Issue : 4 | Page : 168-175
GC–MS analysis and anti–mosquito activities of Juniperus virginiana essential oil against Anopheles stephensi (Diptera: Culicidae)
Azar Tahghighi1, Naseh Maleki-Ravasan2, Navid Dinparast Djadid3, Hamzeh Alipour4, Raziyeh Ahmadvand3, Fateh Karimian5, Saeed Yousefinejad6
1 Department of Clinical Research; Malaria and Vector Research Group, Biotechnology Research Center, Pasteur Institute of Iran, Tehran, Iran
2 Malaria and Vector Research Group, Biotechnology Research Center; Department of Parasitology, Pasteur Institute of Iran, Tehran, Iran
3 Malaria and Vector Research Group, Biotechnology Research Center, Pasteur Institute of Iran, Tehran, Iran
4 Research Center for Health Sciences, Institute of Health, Shiraz University of Medical Sciences, Shiraz, Iran
5 Department of Medical Entomology and Vector Control, School of Public health, Tehran University of Medical sciences, Tehran, Iran
6 Research Center for Health Sciences, Institute of Health, Department of Occupational Health Engineering, School of Health, Shiraz University of Medical Sciences, Shiraz, Iran
|Date of Submission||13-Feb-2019|
|Date of Decision||10-Mar-2019|
|Date of Acceptance||16-Apr-2019|
|Date of Web Publication||24-Apr-2019|
Pasteur Institute of Iran (IPI), No. 69, Pasteur Ave, Tehran
Pasteur Institute of Iran (IPI), No. 69, Pasteur Ave, Tehran
Source of Support: None, Conflict of Interest: None
Objective: To investigate phytochemicals present in the essential oil from aerial parts of eastern red cedar, Juniperus virginiana (J. virginiana) L. (Cupressaceae) and to determine its killing and repellent activities against larvae, pupae, and adults of the Asian malaria mosquito, Anopheles stephensi (Diptera: Culicidae).
Methods: J. virginiana essential oil was extracted by hydrodistillation, and its chemical composition was determined by gas chromatography-mass spectrometry. Seven different logarithmic concentrations of J. virginiana essential oils were used in larvicidal and pupicidal assays. J. virginiana essential oils-impregnated bed nets were applied in a designed animal module to test excito-repellent activity against adult mosquitoes.
Results: Fourteen constituents corresponding to 99.98% of J. virginiana essential oils were identified. Five main components were terpinen-4-ol (25.21%), camphor (19.89%), E-3-hexen- 1-ol (13.30%), γ-terpinene (7.86%), and l-menthone (2.27%). The LC50 and LC90 values against larvae of the Anopheles stephensi were 11.693 and 66.140 ppm and for pupae were 9.640 and 40.976 ppm, respectively. In excito-repellency assay, J. virginiana essential oils-impregnated bed nets provided an average of 54.63% protection for guinea pig and 45.37% mortality for the mosquitoes.
Conclusions: Four monoterpenes and one leaf alcohol were identified by gas chromatography-mass spectrometry. J. virginiana essential oils showed potent larvicidal, pupicidal, adulticidal, and repellent activities against Anopheles stephensi at acceptable concentrations. Evaluation of bioactivity of identified chemicals (alone or in combination) will provide new eco-friendly substances for mosquito-management programs.
Keywords: Malaria, Pesticide, Essential oils, Natural products, Resistance
|How to cite this article:|
Tahghighi A, Maleki-Ravasan N, Dinparast Djadid N, Alipour H, Ahmadvand R, Karimian F, Yousefinejad S. GC–MS analysis and anti–mosquito activities of Juniperus virginiana essential oil against Anopheles stephensi (Diptera: Culicidae). Asian Pac J Trop Biomed 2019;9:168-75
|How to cite this URL:|
Tahghighi A, Maleki-Ravasan N, Dinparast Djadid N, Alipour H, Ahmadvand R, Karimian F, Yousefinejad S. GC–MS analysis and anti–mosquito activities of Juniperus virginiana essential oil against Anopheles stephensi (Diptera: Culicidae). Asian Pac J Trop Biomed [serial online] 2019 [cited 2023 Feb 3];9:168-75. Available from: https://www.apjtb.org/text.asp?2019/9/4/168/256730
| 1. Introduction|| |
Mosquitoes (Diptera: Culicidae) are considered among the most dangerous organisms in the world. They are vectors of notorious human diseases, including malaria, zika, chikungunya, and dengue infecting around 700 million people worldwide and causing death of roughly one million annually. Currently, more than 50% of the world’s populations share their in/outdoor places by at least one mosquito species. Globally, 41 species of Anopheles species are documented to be the main vectors of malaria infection, with two of the major tropical species being Anopheles gambiae (prevalent in Africa) and Anopheles stephensi (An. stephensi) (prevalent in Asia). An. stephensi is the major vector of both Plasmodium falciparum and Plasmodium vivax parasites ranging from Middle East to the Indian subcontinent and China. It is also a principal vector of urban and rural malaria in the south and southeast of Iran,,,,. Vector control is a main way to prevent and reduce malaria transmission,. However, high reproduction rates (70-200 eggs per gonotrophic cycle), relatively small sizes, and living in both aquatic and terrestrial environments make mosquito control more difficult compared to other vectors. To date, an effective vaccine against malaria is not available and the prevention is solely focused on three principles of reducing the larval source, decreasing populations of adult mosquitoes, and personal protection. Each preventive method has its own advantages and disadvantages. Larval source management comprising habitat modification/manipulation, larviciding, and biological control is a major financial and technical responsibility, necessitating both community mobilization and long-term political commitment. Either indoor residual spraying or area spraying (fogging) will be helpful in emergency conditions such as epidemics. Nevertheless, indoor residual spraying may bring the pesticides more close to humans and the area spraying should have repeated and properly scheduled corresponding to the peak time of adult mosquito activity. People at risk of malaria can be protected by using window screens, long-lasting insecticidal nets, repellents, and wearing proper clothes. Repellents will be effective in reducing malaria transmission in travelers and in areas where mosquitoes are active outdoors in the evening while long-lasting insecticidal nets are recommended for people in the endemic area. Chemical pesticides used in the malaria vector control are harmful to the environment and human health and induce resistance in a number of mosquito species,,,. Therefore, eco-friendly methods have been recently considered to enhance vectors control efficiency[23-26] and decrease their side effects. Plant essential oils (EOs), the first generation of herbal pesticides, are known as green pesticides,,. They show anti-insect activities including insecticidal, antifeedant, repellent, oviposition deterrent, growth regulatory, and antivector properties. However, their main function is insecticidal activity,. Normally, EOs can be inhaled, ingested, or skin absorbed by insects. They are lipophilic and primarily penetrate through the chitinous exoskeleton to intervene with biochemical, basic metabolic, physiological, and behavioral functions of the target insects. They act rapidly against some pests and degrade rapidly in the environment. The genus Juniperus L. (Cupressaceae) with about 70 known species is distributed worldwide as native or non-indigenous plants. In Mediterranean Basin, different parts of the Juniperus spp. have been used in embalming, medicine, and cosmetics for a long time. In recent years, antimicrobial and insecticidal properties of the Juniperus species have been the focus of attention,,,,. The aim of this study was to analyze the chemical compositions and to evaluate both larvicidal/pupicidal and adult repellent potency of a Juniperus sp. EO against An. stephensi.
| 2. Materials and methods|| |
2.1. Collection and preparation of EO from plant materials
The aerial green parts of a Juniperus sp. were collected in May 2017 from the green spaces in the Production and Research Complex of the Institute Pasteur of Iran (IPI;51° 3’ 44’' N, 35° 45’ 49’' E and 1 330 m above sea level). The plant species were identified and authenticated as Eastern Redcedar, Juniperus virginiana (J. virginiana) Linnaeus 1753 (Cupressaceae), by Prof. Valiollah Mozaffarian from Research Institute of Forests and Rangelands, Tehran, Iran.
To obtain EO, the plant specimens were washed twice thoroughly with distilled water, immediately after the collection in the morning. About 100 g of the plant materials were ground, mixed with 500 mL of distilled water and then hydro-distilled using a Clevenger apparatus with continuous extraction for 2 h. The yielded EO (~ 0.5 - 0.7 mL) was separated from water, dried over anhydrous sodium sulfate and stored at 4 °C.
2.2. Gas chromatography-mass spectrometry (GC-MS)
The GC-MS analysis was performed on a GC (7890B, Agillent, USA) equipped with a mass spectrometer (5977B, Agillent, USA). A capillary column (VF-1 ms, 15 m, 0.25 mm, 0.25 μm) was used for the analysis. Helium served as the carrier gas, and all the samples were analyzed under the following conditions: initial temperature at 40 °C for 4 min, ramp up at 15 °C/min to 150 °C and remained for 2 min, then increased to 270 °C with a ramp up of 15 °C/min to, injector = 180 volume = 5.0 μL, split = 20, source temp = 250 full scan. Compounds were identified by comparison of their respective mass spectra, retention indices (Kovats index), and relative abundance of acceptance match criteria with those of standards and by comparing with the NIST and Wiley mass spectral data system/library.
2.3. Mosquito sources
The source of An. stephensi mosquitoes used in this study was from Chabahar City, Sistan and Baluchestan Province, which is the endemic focus of malaria in Iran. This strain was rearing alongside with others in the insectarium of School of Health located at Shiraz University of Medical Sciences. The colonies were held routinely at (27 ± 2) °C and (65 ± 5)% relative humidity with 12:12 light/dark photoperiodicity. The immature stages including four larval instars and pupae were reared in the plastic trays (35 cm × 20 cm × 5 cm), one fifth-filled with chlorine-free tap water. Larvae were fed on Tetra Goldfish food (Tetra GmbH, Germany) until pupation. Emerged adults were collected from the trays using electric aspirator and released into adult rearing cages (50 cm × 50 cm × 50 cm). Adult mosquitoes were fed on a 10% sucrose solution ad libitum and blood fed on white lab mouse twice a week. Deposited eggs were collected in small white bowls, and after hatching, larvae were transferred into separated trays to produce a new generation.
2.4. Larvicidal bioassay
According to the standard methods described in the literatures,, 4th instar larvae of the An. stephensi were exposed to seven (2.5 to 160 ppm) serially diluted concentrations of the EO, for 24 h. Initially, the J. virginiana essential oil (JVEO) was dissolved in ethanol 99% as stock, and subsequent solutions were prepared by stock dilution. For each treatment, 99 mL of the dechlorinated water containing 0.000 7% Tween-80 was added to 250 mL glass beaker. Next, 1 mL of each concentration of the JVEO was added to a beaker to make up 100 mL of test solution. The oil-ethanol-water solution was stirred gently for 30 s using a glass rod. Two beakers, one containing tap water mixed with Tween-80 and 1% ethanol and the other composed of untreated dechlorinated water were set as controls. A minimum of 25 healthy larvae were collected by a strainer with fine mesh and then were gently transferred into the beakers. The bioassay was done in a test room with (24 ± 1) °C and (50 ± 5)% relative humidity. Observation on larval mortality was recorded after 24 hours of exposure, and percentage of mortality was reported for the average of four replicates. Larvae were considered as dead when they did not respond to touching with a fine rode.
2.5. Pupicidal bioassay
The pupicidal potency of the JVEO was evaluated as described previously,. The test conditions and concentrations were the same as those stated in the larvicidal bioassay. The difference was that ten two-day pupae of An. stephensi were introduced into an aqueous medium containing 99 mL of dechlorinated water, emulsifier Tween-80, and 1 mL of an appropriate dilution of essential oil. After 24 h, the number of dead pupae, pupae with incomplete emerge, live pupae, and live adults were enumerated. The pupal mortality was calculated based on the number of dead pupae and incomplete emerges (which was considered presumably dead) in four replicates.
2.6. Excito-repellency bioassay
Mosquito excito-repellency test was conducted in a fabricated device consisting of a restrainer and two test chambers. A triparite animal restrainer was prepared using Plexiglas materials with dimensions of 37 cm × 10 cm: two dark and bright chambers at both ends, respectively for restriction of animal head and legs and the middle part for repellency assay with 25-mesh wire screen (9 cm × 6 cm) [Figure 1]A, [Figure 1]D, and [Figure 1]E. The test chambers, made from Plexiglas, were the main parts of the devise in which the large (38 cm × 38 cm × 38 cm) and small (20 cm × 20 cm × 20 cm) boxes were applied to test the repellency and irritability effects of the given chemicals/EOs [Figure 1]B, [Figure 1]C, [Figure 1]F, and [Figure 1]G. Mosquitoes could be released into the exposure chamber by a small entry opening (diameter = 10 cm) equipped with a netting sleeve (25 cm length).
|Figure 1: The device used for repellency assay. A: schematic illustration of the tripartite restrainer, B and C: schematic illustration of the large and small test chambers, D: three different sized holders to adjust animal body size with the restrainer, E: the direction that a guinea pig can be confined in the restrainer, F: the restrainer can be applied inside the large chamber, and G: on top of it.|
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The fabricated module facilitated the study of the behavioral biology of mosquito vectors with a minimum visual error. The device is designed in a way to take ethical considerations into animal experiments Prior to the test, polyester bed nets (20 cm × 20 cm) were impregnated with crude JVEO using the dipping method described by Rozendaal. After drying, nets were used for repellency test. The control nets were left untreated. During the test time, a medium size guinea pig was restrained. Next, the restrainer was covered by JVEO impregnated bed net and then guinea pig was exposed to the bites of mosquitoes. The individual 5- to 7-day-old female An. stephensi were starved for 24 h and then were released into the exposure chamber where the restrainer located. Observations on the number of blood-fed mosquitoes were recorded at 45 min post exposure. Live and dead (or knocked-down) mosquitoes were enumerated as well. The exit trap was checked for the possible entry of mosquitoes. Each test was performed in triplicates and the percentage of protection was calculated by the following equation: % protection= (Nm/Nt) × 100; where Nm is the mean number of unfed females in the treatment group, and Nt is the total number of mosquito.
2.7. Statistical analysis
Mortality data after 24 hours of exposure to different concentrations of JVEO were subjected to Probit analysis to determine lethal concentrations (LC50 and LC90) of larvae and pupae. The data were corrected by Abbott’s formula if mortality in control beakers was 2%-5%. The P values less than 0.05 represented correlations between JVEO doses and mortalities.
2.8. Ethical statement
Study procedure was done based on national regulations and ethical considerations in animal experiments. The research committee and institutional Ethics Committee of the Pasteur Institute of Iran approved this project (No. 1563).
| 3. Results|| |
3.1. Yields and chemical composition of JVEO
The hydrodistillation of the JVEO aerial green parts provided oil in 0.14% (w/w) yield on fresh weight material. The GC-MS analysis revealed the presence of 14 constituents in the JVEO corresponding to 99.98% of the total oil [Figure 2] and [Table 1]. Five chemical compositions of terpinen-4-ol (25.21%), camphor (19.89%), E-3- hexen-1-ol (13.30%), γ -terpinene (7.86%), and l-menthone (2.27%) were identified with a quality of ≥ 95%. Four components of 1,8- cineol (7.37%), α -ocimene (5.55%), (-)-bornyl acetate (1.77%), and (+)-4-carene (1.44%) were identified with a quality of ≥ 83%. It should be noted that the name of other five constituents with qualities lower than 83% was not determined [Table 1].
|Table 1: Chemical composition of J. virginiana essential oils characterized by GC/MS.|
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3.2. Larvicidal and pupicidal activity of JVEO
Probit regression line parameters of JVEO against larvae and pupae of An. stephensi are shown in [Table 2]. In both larvicidal and pupicidal assays, the mortality rates in the control groups were lower than 5% in all concentrations, so the corrections were not applied. The IC50 and IC90 values against larvae of An. stephensi were 11.693 and 66.140 ppm and for pupae were 9.640 and 40.976 ppm, respectively. The JVEO showed to be more effective against pupae than larvae, as illustrated in [Figure 3].
|Table 2: Probit regression line parameters of J. virginiana essential oils against larvae and pupae of An. stephensi.|
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|Figure 3: Probit regression line of larvae and pupae of An. stephensi exposed to different concentrations of J. virginiana essential oils.|
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3.3. Excito-repellency activity
The crude JVEO provided an average of 54.63% protection to the guinea pig against An. stephensi bite. There was not any blood-fed mosquito in three treatments. Instead, many dead mosquitoes were found inside the test chambers indicating killing effects of JVEO rather than repellency. The JVEO caused an average of 45.37% mortality in the tested adults. There was not any mosquito in the small exit box. Detailed information is presented in [Table 3].
|Table 3: Repellency test result of J. virginiana essential oils against An. stephensi under laboratory conditions.|
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| 4. Discussion|| |
Despite remarkable scientific progress, mosquito-borne diseases have still remained as a major threat to humankind. Therefore, there is an urgent need for novel bioactive natural products, especially from plant resources (which are fed by both larval and adult stages of mosquitoes) to overcome problems caused by chemical pesticides. Plant species containing attractant and/or repellent compounds to insects can be utilized in every anti-mosquito program; however, the repulsive group is more applicable. Aromatic plants such as Juniperus spp., which is naturally avoided by insect species, will be appropriate candidates. In this regard, we investigated the chemical composition of JVEO by GC-MS and tested its killing and repellent activities against both aquatic and terrestrial stages of An. stephensi.
Chemical components of the JVEO were dominated by five components, including four monoterpenes and one leaf alcohol [Table 1]. Terpinen-4-ol, the most abundant component, is a monoterpene with a wide range of anti-microbial, anti-parasitic, antioxidant, anti-inflammatory, anti-cancer and insecticidal activities. It was found to be the primary active ingredient of Melaleuca (tea tree), Meristic (nutmeg), and Juniper (coniferous) species,,,. In various studies, fumigant, antifeedant and insecticidal activities of terpinen-4-ol have been approved in target insects,,50],. Terpinen- 4-ol is the main component of EOs like Melaleuca alternifolia that could significantly arrest the activity of glutathione S-transferase, carboxylesterase and acetylcholinesterase enzymes.
Camphor, another frequent monoterpene in JVEO, is used for its scent, as a cooking ingredient, an embalming fluid, for medicinal purposes, and in religious ceremonies. It has been applied in the treatment of rheumatism, bronchitis, muscle pain, asthma, sprains, and as a cold remedy. Also, camphor was effective alone or in combination with others against some serious diseases. 714-X is a camphor-based drug, which is effective for breast and prostate cancer. Padma 28 is another drug based on camphor formula and effective against chronic inflammatory diseases. Fumigant, repellence and insecticidal activities of camphor were measured on pest insects as well,,. Additionally, it has been proposed that the synergistic toxicity of dual mixture of camphor and 1,8-cineole is correlated with the degree of penetration through the insect’s exoskeleton.
E-3-hexen-1-ol (or leaf alcohol) is a colorless oily liquid with an intense grassy-green odor, particularly emitted from several plant species and many fruits. Actually, it is applied by both herbivores and natural enemies to trace the host and host prey in multitrophic interactions. Hence, this compound can be applied in integrated pest management strategies.
The γ -terpinene is another monoterpene isolated from a variety of plant sources. This terpene has been shown to possess antioxidant,, antimicrobial, insecticidal and antifeedant activities. The acaricidal and knockdown activity of γ -terpinene was revealed against adult ticks of Hyalomma marginatum (Acari: Ixodidae). Similar to organochlorines and pyrethroids, this terpene may act on voltage-gated sodium channels, which are essential for the beginning and spread of the action potential in the nervous system.
Menthone is generally used in flavor compositions. It is found with menthol in many EOs, including peppermint, geranium, and other plants. Menthone has shown antimicrobial and antioxidant activities,,. The insecticidal potency of menthone has been approved in control of rice weevil, Sitophilus oryzae. The mosquitocidal activity of menthol derivatives has been shown to be due to the presence of the major aroma compounds such as menthol and not due to minor components, e.g. menthone.
Recently, Stewart and colleagues determined the chemical composition of the EOs from different parts of J. virginiana using GC-MS analysis. Contrary to our study results, they found higher concentrations of limonene in the berries, α -pinene in the bark, and safrole, and methyl eugenol in the leaves. The reason for this discrepancy may be due to ecological conditions, the mix preparation of berries and leaves, as well as the difference in the season of the plant collection.
The results of current study could validate larvicidal and pupicidal activities of different concentrations of JVEO against An. stephensi. The IC50 values against larvae and pupae were 11.693 and 9.640 ppm, respectively. According to the guideline developed for the larvicidal activity of plant EOs, JVEO is ranked in the third category requiring more attention and research. In this study, the mortality of mosquito larvae and pupae was completely dosage-dependent. However, the effect of JVEO on pupae was 0.01 time more toxic than on larvae. This discrepancy may be related to the specimens difference in terms of sex, age, size, and physiological status as indicated in other studies.
In several studies, EOs extracted from Juniperus species have been evaluated against mosquito species. Prajapati and colleauges investigated bioactivities of 10 EOs, including Juniperus macropoda against An. stephensi, Aedes aegypti (Ae. aegypti), and Culex quinquefasciatus (C. quinquefasciatus) and showed that they are highly effective larvicides (LD95: 110.2-204.8 μg/mL). Amer and Mehlhon investigated the larvicidal activity of the oils from 41 plant species, including J. virginiana and Juniperus communis (J. communis) against 3rd instar larvae of three above-mentioned species. The IC50 values of the three mosquito species when exposed to J. virginiana oil have been ~ 10 ppm for both An. stephensi and C. quinquefasciatus and < 5 ppm for Ae. aegypti. In comparison, the LC5q values for J. communis were respectively reported as ~ 100, 50, and 10 ppm for An. stephensi, Ae. aegypti, and C. quinquefasciatus, respectively. Thus, An. stephensi was reported to be more resistant than two other mosquito species to J. communis. Vourlioti- Arapi and colleagues studied EOs from various parts of the six indigenous Juniperus spp. against 3rd and early 4th instar larvae of Culex pipiens. They found that the EO of Juniperus drupacea obtained from the wood part is the best larvicide with an LC50 value of 26.47 mg/L. Larvicidal activity of Juniperus procera EO was also studied against Anopheles arabiensis under laboratory and semi-field conditions. The LC50 values for both conditions were reported to be 14.42 and 24.51 mg/L, respectively.
Uniyal et al examined an EO from J. communis against 3rd instar larvae of Ae. aegypti and reported a 36% mortality after 24 hours of exposure in 500 mg/L (LC50 = 276.076). Regardless of the differences between Juniper and target mosquito species, the larvicidal results of the current study were in line with previous studies and even provided some better results. However, no study was found to compare the pupicidal results.
The last part of the study was preliminary analysis on the bioactivity of JVEO against adults An. stephensi. The repellency activity of JVEO was tested using a module made from transparent Plexiglas. The device enabled the operator to easily follow landing, biting, or avoiding behaviors of the tested mosquitoes. The device, which was patterned from the houses in malaria-endemic areas, can be used for concomitant assessment of irritability and repellency, the efficiency of synthetic or natural repellents applied on the body/clothes, or as a blood feeding apparatus.
We used the crude JVEO in repellency assay (without irritancy) and found an average of 54.63% protection up to 45 min for guinea pig against An. stephensi bite. Amer and Mehlhon investigated the repellency effect of oils from 41 plant species, including two Juniperus species (J. virginiana and J. communis) against Ae. aegypti, An. stephensi, and C. quinquefasciatus using the skin of human volunteers. They reported weak (37.8% and 43.2%), mild (38.1% and 76.2%), and great (100% and 100%) repellency effect against Ae. aegypti, An. stephensi, and C. quinquefasciatus, respectively.
The results of our study together with Amer and Mehlhorn’s study indicate that J. virginiana has repellency property against adult mosquitoes; however, these results are not comparable due to the difference in mosquito’s and host species tested. The JVEO was showed adulticidal (~ 45.37% mortality) against An. stephensi rather than repellency effect. EOs having this property are important since they can protect human hosts from mosquito bites, and may cause pathogen depletion from the mosquito populations.
Herein, we identified four monoterpenes (terpinen-4-ol, camphor, γ -terpinen, and l-menthone) and one leaf alcohol (E-3-hexen-1- ol) from JVEO, which presumably were involved in the biological activities of JVEO. The oil showed potent larvicidal, pupicidal, adulticidal, and repellent activities against An. stephensi. This oil may be a candidate for the development of new, safe, effective, and inexpensive control measures such as nanoemulsions or nanocapsules for different life stages of An. stephensi. Evaluation of bioactivity of identified chemicals (alone or in combination) will provide lead products for mosquito control programs in field trials.
Conflict of interest statement
Authors declare that there are no competing interests.
The pilot study of this research was initiated in the National Insectary of Iran located at the Production and Research Complex of the IPI and was fulfilled in the Insectaries of the School of Public Health, Shiraz University of Medical Sciences. The authors wish to thank the staffs of both Insectaries, especially Ms. Marziae Shahriari- Namadi. This research was financially supported by N Maleki- Ravasan & A Tahghighi.
| References|| |
Caraballo H, King K. Emergency department management of mosquito-borne illness: Malaria, dengue, and West Nile virus. Emerg Med Pract
2014; 16(5): 1-23.
Hay SI, Sinka ME, Okara RM, Kabaria CW, Mbithi PM, Tago CC, et al. Developing global maps of the dominant Anopheles
vectors of human malaria. PLoS Med
2010; 7(2): e1000209.
Wells MB, Andrew DJ. Salivary gland cellular architecture in the Asian malaria vector mosquito Anopheles stephensi. Parasit Vectors
2015; 8(1): 617.
Sinka ME, Bangs MJ, Manguin S, Chareonviriyaphap T, Patil AP, Temperley WH, et al. The dominant Anopheles
vectors of human malaria in the Asia-Pacific region: Occurrence data, distribution maps and bionomic précis. Parasit Vectors
Oshaghi M, Yaaghoobi F, Abaie M. Pattern of mitochondrial DNA variation between and within Anopheles stephensi
(Diptera: Culicidae) biological forms suggests extensive gene flow. Acta Trop
2006; 99(2-3): 226-233.
Oshaghi M, Yaghoobi F, Vatandoost H, Abai M, Akbarzadeh K. Anopheles stephensi
biological forms, geographical distribution, and malaria transmission in malarious regions in Iran. Pak J Biol Sci
2006; 9(2): 294-298.
Alipour H, Abaie MR, Ladonni H, Kadivar AA. A comparative study on excito-repellency effects of permethrin, deltamethrin and etofenprox treated bed nets against Anopheles stephensi
Liston, 1901 (Diptera: Culicidae). JHSSS
2013; 1(2): 94-97.
Chavshin AR, Oshaghi MA, Vatandoost H, Hanafi-Bojd AA, Raeisi A, Nikpoor F. Molecular characterization, biological forms and sporozoite rate of Anopheles stephensi
in southern Iran. Asian Pac J Trop Biomed
2014; 4(1): 47-51.
Hoosh-Deghati H, Dinparast-Djadid N, Moin-Vaziri V, Atta H, Raz AA, Seyyed-Tabaei SJ, et al. Composition of Anopheles
species collected from selected malarious areas of Afghanistan and Iran. J Arthropod Borne Bis
2017; 11(3): 354-362.
Mullen GR, Durden LA. Medical and veterinary entomology
. 3rd ed. Amsterdam, Boston: Academic Press; 2002.
Hill AV. Vaccines against malaria. Philos Trans R Soc Lond B Biol Sci
2011; 366(1579): 2806-2814.
World Health Organization. Larval source management: A supplementary measure for malaria vector control. An operational manual
. [Online] Available from:
. [Accessed on 11th July 2013].
Benelli G, Bedini S, Flamini G, Cosci F, Cioni PL, Amira S, et al. Mediterranean essential oils as effective weapons against the West Nile vector Culex pipiens
and the Echinostoma
intermediate host Physella acuta:
What happens around? An acute toxicity survey on non-target mayflies. Parasitol Res
2015; 114(3): 1011-1021.
Rodríguez AD, Penilla RP, Rodríguez MH, Hemingway J, Trejo A, Hernández-Avila JE. Aceptabilidad y efectos secundarios percibidos del rociado residual intradomiciliario de insecticidas bajo diferentes esquemas de manejo de resistencia. Salud Publica Mex
2006; 48: 317-324.
Oki M, Sunahara T, Hashizume M, Yamamoto T. Optimal timing of insecticide fogging to minimize dengue cases: Modeling dengue transmission among various seasonalities and transmission intensities. PLoS Negl Trop Dis
2011; 5(10): e1367.
World Health Organization. Vector control and personal protection of migrant and mobile populations in the GMS: A matrix guidance on the best options and methodologies
. [Online] Available from: http://apps.who.int/ iris/handle/10665/204341
[Accessed on 4th February 2016].
Alipour H, Amiri SA, Delavari A, Amiri A. Epidemiology of malaria in Nikshahr, Sistan and Baluchestan province, Southeast Iran, during 2004-2010. Ann Trop Med Public Health
2013; 6(4): 430-434.
Fouet C, Atkinson P, Kamdem C. Human interventions: Driving forces of mosquito evolution. Trends Parasitol
2018; 34(2): 127-139.
Karunamoorthi K, Sabesan S. Insecticide resistance in insect vectors of disease with special reference to mosquitoes: A potential threat to global public health. Health Scope
2013; 2(1): 4-18.
Soltani A, Vatandoost H, Oshaghi MA, Enayati AA, Raeisi A, Eshraghian MR, et al. Baseline susceptibility of different geographical strains of Anopheles stephensi
(Diptera: Culicidae) to temephos in malarious areas of Irana. J Arthropod-Borne Dis
2013; 7(1): 56-65.
Pavela R. Essential oils for the development of eco-friendly mosquito larvicides: A review. Ind Crops Prod
Pavela R, Benelli G. Essential oils as ecofriendly biopesticides? Challenges and constraints. Trends Plant Sci
2016; 21(12): 1000-1007.
Benelli G, Mehlhorn H. Declining malaria, rising of dengue and Zika virus: Insights for mosquito vector control. Parasitol Res
2016; 115(5): 1747-1754.
Koul O, Walia S, Dhaliwal G. Essential oils as green pesticides: Potential and constraints. Biopestic Int
2008; 4(1): 63-84.
Mossa ATH. Green pesticides: Essential oils as biopesticides in insect-pest management. J Environ Sci Technol
2016; 9(5): 354-378.
Prajapati V, Tripathi A, Aggarwal K, Khanuja S. Insecticidal, repellent and oviposition-deterrent activity of selected essential oils against Anopheles stephensi, Aedes aegypti
and Culex quinquefasciatus. Bioresour Technol
2005; 96(16): 1749-1757.
Said-Al Ahl HA, Hikal WM, Tkachenko KG. Essential oils with potential as insecticidal agents: A review. Inter J Environ Plan Manag
2017; 3(4): 23-33.
Khater HF. Ecosmart biorational insecticides: Alternative insect control strategies. In: Perveen F (eds.) Insecticides-advances in integrated pest management
. Croatia: In Tech; 2012, p. 21-26.
El-Wakeil NE. Botanical pesticides and their mode of action. Gesunde Pflanz
2013; 65(4): 125-149.
Tumen I, Süntar I, Eller FJ, Kele H, Akkol EK. Topical wound-healing effects and phytochemical composition of heartwood essential oils of Juniperus virginiana
L., Juniperus occidentalis
Hook., and Juniperus ashei
J. Buchholz. J Med Food
2013; 16(1): 48-55.
Pepeljnjak S, Kosalec I, Kalodera Z, Blazevic N. Antimicrobial activity of juniper berry essential oil (Juniperus communis
L., Cupressaceae). Acta Pharm
2005; 55(4): 417-422.
Amer A, Mehlhorn H. Larvicidal effects of various essential oils against Aedes, Anopheles
, and Culex
larvae (Diptera, Culicidae). Parasitol Res
2006; 99(4): 466-472.
Takao Y, Kuriyama I, Yamada T, Mizoguchi H, Yoshida H, Mizushina Y. Antifungal properties of Japanese cedar essential oil from waste wood chips made from used sake barrels. Mol Med Report
2012; 5(5): 1163-1168.
Vourlioti-Arapi F, Michaelakis A, Evergetis E, Koliopoulos G, Haroutounian S. Essential oils of indigenous in Greece six Juniperus
taxa. Parasitol Res
2012; 110(5): 1829-1839.
Uniyal A, Tikar SN, Agrawal OP, Sukumaran D, Veer V. Larvicidal and oviposition deterrent activity of twenty three essential oils against Aedes aegypti. Int J Mosq Res
2016; 3(1): 14-21.
Vatandoost H, Dehkordi AS, Sadeghi S, Davari B, Karimian F, Abai M, et al. Identification of chemical constituents and larvicidal activity of Kelussia odoratissima
Mozaffarian essential oil against two mosquito vectors Anopheles stephensi
and Culex pipiens
(Diptera: Culicidae). Exp Parasitol
2012; 132(4): 470-474.
Tahghighi A, Maleki N. Invertors: A device for the study of excito-repellency behavior of mosquito vectors of diseases
. IR 001828 (Patent) 2017.
Rozendaal JA. Vector control: Methods for use by individuals and communities
. World Health Organization: Geneva, Switzerland; 1997, p. 6-28.
Ferguson NM. Challenges and opportunities in controlling mosquito-borne infections. Nature
2018; 559(7715): 490-497.
Dorman H, Deans SG. Antimicrobial agents from plants: Antibacterial activity of plant volatile oils. J Appl Microbiol
2000; 88(2): 308-316.
Carson C, Hammer K, Riley T. Melaleuca alternifolia
(tea tree) oil: A review of antimicrobial and other medicinal properties. Clin Microbiol Rev
2006; 19(1): 50-62.
Tighe S, Gao YY, Tseng SC. Terpinen-4-ol is the most active ingredient of tea tree oil to kill Demodex
mites. Transl Vis Sci Technol
2013; 2(7): 1-8.
Nakayama K, Murata S, Ito H, Iwasaki K, Villareal MO, Zheng YW, et al. Terpinen-4-ol inhibits colorectal cancer growth via
reactive oxygen species. Oncol Lett
2017; 14(2): 2015-2024.
Mills C, Cleary BV, Walsh JJ, Gilmer JF. Inhibition of acetylcholinesterase by tea tree oil. J Pharm Pharmacol
2004; 56(3): 375-379.
Dambolena JS, Zunino MP, Herrera JM, Pizzolitto RP, Areco VA, Zygadlo JA. Terpenes: Natural products for controlling insects of importance to human Health-A structure-activity relationship study. Psyche J Entomol
Liao M, Xiao JJ, Zhou LJ, Yao X, Tang F, Hua RM, et al. Chemical composition, insecticidal and biochemical effects of Melaleuca alternifolia
essential oil on the Helicoverpa armigera. J Appl Entomol
Liao M, Xiao JJ, Zhou LJ, Liu Y, Wu XW, Hua RM, et al. Insecticidal activity of Melaleuca alternifolia
essential oil and RNA-Seq analysis of Sitophilus zeamais
transcriptome in response to oil fumigation. PLoS One
2016; 11(12): e0167748.
Alamgir A. Therapeutic use of medicinal plants and their extracts: Volume 2, phytochemistry and bioactive compounds
. New York, USA: Springer; 2018.
Salman AS, Farghaly AA, Donya SM, Shata F. Protective effect of Cinnamomum camphora
leaves extract against atrazine induced genotoxicity and biochemical effect on mice. J Am Sci
2012; 8(1): 190-196.
Kaegi E. Unconventional therapies for cancer: 6. 714-X. Task force on alternative therapeutic of the canadian breast cancer research initiative. CMAJ
1998; 158(12): 1621-1624.
Weiss L, Barak V, Raz I, Or R, Slavin S, Ginsburg I. Herbal flavonoids inhibit the development of autoimmune diabetes in NOD mice: Proposed mechanisms of action in the example of PADMA 28. Altern Med Stud
2011; 1: 1-6.
Cansian RL, Astolfi V, Cardoso RI, Paroul N, Roman SS, Mielniczki- Pereira AA, et al. Insecticidal and repellent activity of the essential oil of Cinnamomum camphora
Y. Fujita (Ho-Sho) and Cinnamomum camphora
(L.) J Presl. var. hosyo
(Hon-Sho) on Sitophilus zeamais
Mots. (Coleoptera, Curculionedae). Rev Bras Plantas Med
2015; 17(4): 769-773.
Fu JT, Tang L, Li WS, Wang K, Cheng DM, Zhang ZX. Fumigant toxicity and repellence activity of camphor essential oil from Cinnamonum camphora
Siebold against Solenopsis invicta
workers (Hymenoptera: Formicidae). J Insect Sci
2015; 15(1): 129.
Wu Y, Zhang WJ, Huang DY, Wang Y, Wei JY, Li ZH, et al. Chemical compositions and insecticidal activities of Alpinia kwangsiensis
essential oil against Lasioderma serricorne. Molecules
2015; 20(12): 21939-21945.
Tak JH, Isman MB. Penetration-enhancement underlies synergy of plant essential oil terpenoids as insecticides in the cabbage looper, Trichoplusia ni. Sci Rep
Heiden A, Kobel K, Langebartels C, Schuh-Thomas G, Wildt J. Emissions of oxygenated volatile organic compounds from plants Part I : Emissions from lipoxygenase activity. J Atmos Chem
2003; 45(2): 143-172.
Wei J, Kang L. Roles of (Z)-3-hexenol in plant-insect interactions. Plant Signal Behav
2011; 6(3): 369-371.
Giweli A, Džamić AM, Soković M, Ristić MS, Marin PD. Antimicrobial and antioxidant activities of essential oils of Satureja thymbra
growing wild in Libya. Molecules
2012; 17(5): 4836-4850.
Foti MC, Ingold K. Mechanism of inhibition of lipid peroxidation by γ -terpinene, an unusual and potentially useful hydrocarbon antioxidant. J Agric Food Chem
2003; 51(9): 2758-2765.
Ayvaz A, Sagdic O, Karaborklu S, Ozturk I. Insecticidal activity of the essential oils from different plants against three stored-product insects. J Insect Sci
Cetin H, Cilek JE, Oz E, Aydin L, Deveci O, Yanikoglu A. Acaricidal activity of Satureja thymbra
L. essential oil and its major components, carvacrol and gamma-terpinene against adult Hyalomma marginatum
(Acari: Ixodidae). Vet Parasitol
2010; 170(3-4): 287-290.
Auteri M, La Russa F, Blanda V, Torina A. Insecticide resistance associated with kdr mutations in Aedes albopictus:
An update on worldwide evidences. Bio Med Res Int
Mimica-Dukic N, Bozin B, Sokovic M, Simin N. Antimicrobial and antioxidant activities of Melissa officinalis
L. (Lamiaceae) essential oil. J Agric Food Chem
2004; 52(9): 2485-2489.
Desam NR, Al-Rajab AJ, Sharma M, Mylabathula MM, Gowkanapalli RR, Mohammed A. Chemical composition, antibacterial and antifungal activities of Saudi Arabian Mentha longifolia
L. essential oil. J Coast Life Med
2017; 5(10): 441-446.
Vendan SE, Manivannan S, Sunny AM, Murugesan R. Phytochemical residue profiles in rice grains fumigated with essential oils for the control of rice weevil. PLoS One
2017; 12(10): e0186020.
Samarasekera R, Weerasinghe IS, Hemalal KP. Insecticidal activity of menthol derivatives against mosquitoes. Pest Manag Sci
2008; 64(3): 290-295.
Stewart CD, Jones CD, Setzer WN. Essential oil compositions of Juniperus virginiana
and Pinus virginiana
, two important trees in Cherokee traditional medicine. Am J Essent Oil Nat Prod
2014; 2(2): 17-24.
Aizoun N, Aikpon R, Azondekon R, Asidi A, Akogbéto M. Comparative susceptibility to permethrin of two Anopheles gambiae s.l
. populations from Southern Benin, regarding mosquito sex, physiological status, and mosquito age. Asian Pac J Trop Biomed
2014; 4(4): 312-317.
Karunamoorthi K, Girmay A, Fekadu S. Larvicidal efficacy of Ethiopian ethnomedicinal plant Juniperus procera
essential oil against Afrotropical malaria vector Anopheles arabiensis
(Diptera: Culicidae). Asian Pac J Trop Biomed
2014; 4(Suppl 1): S99-S106.
Amer A, Mehlhorn H. Repellency effect of forty-one essential oils against Aedes, Anopheles
, and Culex
mosquitoes. Parasitol Res
2006; 99(4): 478-490.
[Figure 1], [Figure 2], [Figure 3]
[Table 1], [Table 2], [Table 3]
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