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Anti-mosquito plants as an alternative or incremental method for malaria vector control among rural communities of Bagamoyo District, Tanzania
Journal of Ethnobiology and Ethnomedicine volume 10, Article number: 56 (2014)
Plants represent one of the most accessible resources available for mosquito control by communities in Tanzania. However, no documented statistics exist for their contribution in the management of mosquitoes and other insects except through verbal and some publications. This study aimed at assessing communities’ knowledge, attitudes and practices of using plants as an alternative method for mosquito control among selected communities in a malaria-prone area in Tanzania.
Questionnaires were administered to 202 respondents from four villages of Bagamoyo District, Pwani Region, in Tanzania followed by participatory rural appraisal with village health workers. Secondary data collection for plants mentioned by the communities was undertaken using different search engines such as googlescholar, PubMED and NAPRALERT.
Results showed about 40.3% of respondents used plants to manage insects, including mosquitoes. A broad profile of plants are used, including “mwarobaini” (Azadirachta indica) (22.5%), “mtopetope” (Annona spp) (20.8%), “mchungwa/mlimau” (Citrus spp) (8.3%), “mvumbashi/uvumbati” (Ocimum spp) (7.4%), “mkorosho” (Anacadium occidentale) (7.1%), “mwembe” (5.4%) (Mangifera indica), “mpera” (4.1%) (Psidium spp) and “maganda ya nazi” (4.1%) (Cocos nucifera). Majority of respondents collected these plants from the wild (54.2%), farms (28.9%) and/or home gardens (6%). The roles played by these plants in fighting mosquitoes is reflected by the majority that deploy them with or without bed-nets (p > 0.55) or insecticidal sprays (p >0.22). Most respondents were aware that mosquitoes transmit malaria (90.6%) while few respondents associated elephantiasis/hydrocele (46.5%) and yellow fever (24.3%) with mosquitoes. Most of the ethnobotanical uses mentioned by the communities were consistent with scientific information gathered from the literature, except for Psidium guajava, which is reported for the first time in insect control.
This survey has indicated some knowledge gap among community members in managing mosquito vectors using plant. The communities need a basic health education and sensitization for effective exploitation of this valuable tool for reducing mosquitoes and associated disease burdens. On the other hand, the government of Tanzania should strengthen advocacy of botanical pesticides development, registration and regulation for public health benefits because they are source of pest control tools people rely on them.
Availability of healthcare services for improved diagnosis and treatment of mosquito-borne diseases have been considered as two crucial interventions in minimizing mortality and morbidity risk due to exposure to infected mosquitoes . However, these alone cannot eliminate the high mosquito borne disease incidences in sub-Saharan Africa unless levels of infections and re-infections are substantially reduced through effective vector control mechanisms. Thus, a new strategy for control and prevention of mosquito-borne diseases, reinforcing linkages between health and environment and emphasizing Integrated Vector Management (IVM), has been advocated by WHO . The strategy also stresses the importance of understanding the local vector ecology and local patterns of disease transmission. This is considered important in choosing the appropriate vector control tool from a range of the available options. IVM needs to be locally managed and flexible, with emphasis on decentralization, active community participation and harnessing of local knowledge . In line with this understanding, Tanzania has since 2005 made a number of reforms in the health sector with most of the disease prevention and control program activities being planned and implemented at district level . However, the current mosquito vector management efforts are focused on the use of Insecticide Treated Nets (ITN) and Indoor Residual Sprays (IRS). Very little effort has been directed towards the use of pesticidal plants that have been deployed by rural communities since time immemorial as a first line intervention in primary health care.
Furthermore, many of the synthetic insecticides available to-date faces challenges due to environmental contamination, resistance development by target insects and high deployment costs. This calls for the use of ecologically friendly and effective botanical insecticides as an alternative measure. The aim of present study, therefore, was to assess communities’ knowledge, attitudes and practices of using plants as an alternative or incremental method for mosquito vector control among selected communities in a malaria-prone area of Bagamoyo district, Tanzania so as to know the existing and potential contribution of anti-insect plants in this endeavor. Specifically, insights generated from this study, are expected to add value to the current IVM strategies in rural communities where plants continue to be deployed in mosquito control.
Study area and design
Bagamoyo district is in Coast Region and it is allocated about 75 km north of Dar es Salaam which is the major city of Tanzania. The majority of the populations are ethnic groups of Wakwere, Wazaramo and Wazingua, however, other tribes co-exist in the area due to close proximity to Dar es Salaam. Majority of the population are Muslims; farmers and fishermen who practices Swahili Culture that was introduced by Arabs during the slavery and ivory trade in 19th century. The study was carried out in four villages of Yombo, Chansimba, Makurunge and Kongo (between 6° 24′ 19″ S: 38° 50′ 31″ E and 6° 29′ 03″ S: 38° 49′ 49″ E; Figure 1). The four villages are vicinity to river Ruvu which flows to the Indian Ocean. Over-flooding during the rainy seasons between April-May and October-November creates temporary and permanent mosquito breeding water ponds in the vicinity, which contribute to high infectivity rates during these periods. In addition, selection of the villages was based on previously reported higher entomological inoculation rates  data, and malaria epidemiology, demography and entomological data of the study area [4–7]. The study was based on a cross-sectional design using self-administered questionnaires conducted in the selected local communities. Consented respondents (202) were randomly selected on the criteria that they were at least in the post-primary school age (i.e. 14 years and above).
Before commencement of the study, reconnaissance surveys were conducted in the study area. The purpose of the visits was to get acquainted with the study areas and discuss the project with district and village leaders. Leaders in all the four villages agreed to convene a meeting of the adult residents with the help of Village Health Workers (VHWs) who identified the participants based on our criteria. Informed collective agreement was made and other useful information was sought. Those who consented proceeded to filling in the self-administered questionnaires and then followed by in-depth interview in a focus group discussion. During filling of questionnaires those who did not know how to read and write were assisted to fill the questionnaires by the research team who asked them to respond to questions. Focus group discussion consisted of leaders of the village and village health workers whom together checked and confirm identity of the meaning and of any ambiguities. However, FGD did not affect the priority of list which was given by individuals when filling the questions. Semi-structured questionnaire and focus group discussions were translated in Swahili language (after being translated from the Standard English version). Published information on the plant species mentioned was gathered through literature search using google scholar, PubMED and NAPRALERT. The final results of the study were shared with all study participants during community feedback meetings at each of the study sites.
Scientific and ethical approval for the study (NIMR/HQ/R.8a/Vol. IX/1093) was granted by the Medical Research Coordinating Committee (MRCC) of the National Institute for Medical Research and the institutional clearance was granted by the Senate, Research and Publication of the Muhimbili University of Health and Allied Sciences (MUHAS/RP/AEC/VOL.XIII/), Tanzania.
Quantitative data were double entered into a computer database using EpiData® software. Responses from closed- ended questions in questionnaires were coded before being entered into the computer. Data quality checking process was done and thereafter the database was exported to STATA 10 software for statistical analysis.
Socio-economic and demographic profile
Respondents (202) were interviewed from four villages, Yombo (48), Chasimba (55), Kongo (49) and Makurunge (50). Majority of the respondents were of age ranging between 26–39 years (54.5%) and were married (60.2%). There was, however, no significant difference between the sex categories of the respondents (p > 0.32). Majority of the respondents had primary school level of education (66.7%) and were peasants (58.2%) who had stayed in the study villages for varying periods (>15 years, 38.1%; 11–15 years, 17.5%; 6–10 years, 16.5%; 2–5 years, 15.5%; <1 year, 12%). From the questionnaires and on general inspection of their homesteads, majority were of mud and metal roof (50.3%) or mud and grass roof (30.4%); the rest were of blocks with metal roof (18.4%) and few with blocks and grass or blocks and tiles (Table 1).
People’s knowledge and practice on use of plants for controlling mosquitoes
About 81 (40.3%) of the respondents reported to have used plants to control arthropods including mosquitoes (30.3%) and scorpions (11.1%). Others were spiders, centipedes, army ants, bedbug, cockroaches, bees, termites, small ants, house flies, etc. Snakes which do not belong to the phylum arthropoda, was ranked second in terms of organisms that attack human habitats and it is also controlled with plant products. Most of the arthropods mentioned were vectors of important tropical diseases or cause other harm to humans (Table 2).
Further probing on the profiles of plants used in managing the arthropods identified Azadirachta indica, Annona spp, Ocimum spp., Citrus spp., Anacardium occidentale Mangifera indica, Psidium spp and Cocos nucifera as the plant species commonly used (Table 3). The distances travelled by members of the community to collect the plants were less than one kilometer for majority of respondents (51.2%), while only 6.1% travelled up to 5 km. Most of the plants are collected from the wild (54.2%), with some from respondents’ farms (28.9%) and home gardens (6%).
Respondents who acknowledged using plants in controlling mosquitoes had different modalities and time for usage. Most of them either use plants daily (56.3%) or when need arises (25.0%). Parts of the plants frequently mentioned for use include leaves (38.2%) and roots (41.2%). These are put on burning charcoal in containers placed at different locations inside the homesteads to generate smoke and volatile emissions (45.2%). According to the majority of the respondents (78.2%), the process between application of the plant products and insects dying took less than six hours (Table 4). Other modalities of application of plant parts were placing ground fresh materials (21.9%) or small pieces (12.5%) at selected places within the homesteads, and soaking plant parts or powder in water and then spraying (15.6%). Majority of the respondents appeared to target adult mosquitoes in their control efforts because most plant products were applied inside homesteads (45.2%) rather than at dumping areas (19.4%), water tanks (9.7%) or outdoor sewage systems (3.2%).
Knowledge about mosquito transmitted diseases, multiplication and control
Majority of respondents (97.8%) were aware of disease agents transmitted by mosquitoes. Among the diseases mentioned included malaria (90.6%), elephantiasis/hydrocele (46.5%) and yellow fever (24.3%) (Table 5). Furthermore, a large proportion of respondents associated mosquito breeding and multiplication with stagnant water (70.8%), dumping sites (35.1%), sewages (45.5%) and drainage systems (26.2%). Others included uncleared bushes around the houses (35.6%) and leaking taps (13.4%). Further probing with respondents on mosquito preventive measures, identified bed-nets (63.4%) and drying stagnant water bodies (59.9%) as the best options, in addition to keeping home premises clean (34.2%), using insecticides residual sprays (32.2%) and using plants/herbs (17.3%) (Table 5). However, majority of the respondents were not comfortable with reliance on only one preventive measure such as ITN, or use of plants/herbs or insecticide residual spray because responses showed no significant differences between the uses of the three methods in all the four villages surveyed (Table 6).
Perceptions on the use of plants in mosquito control
On respondents’ attitude towards incorporating plants in mosquito management, their accessibility (26.7%) and affordablility (29.2%) were important factors (Table 7). The other reason highlighted was that the use of plants has been an old and familiar traditional practice (22.8%). However, the respondents were willing and happy to participate in other community-based mosquito management practices, such as draining off or reducing formation of small stagnant water bodies around their houses (58.4%), cleaning bushes (35.6%) and applying safe insecticides on sizeable stagnant waters (34.2%) (Table 7).
Secondary data generated on ethnobotanical status and scientific investigations on the plants mentioned
Secondary data collection on plants mentioned by the communities in Bagamoyo district was done by using different search engines such as Google Scholar, PubMED and NAPRALERT. Except for Psidium species (the use of which is reported for the first time), all plants mentioned have been either reported to be used traditionally elsewhere to control some insects or investigated scientifically and evidence on the presence of anti-insect phytochemicals generated (Table 8). Interestingly, control methods deployed in the ethnobotanical practices, as well as scientific investigations undertaken, both targeted repellency and/or larvidical properties, similar to the use of the plants by the communities in Bagamoyo district (Tables 4 and 8).
The Government of Tanzania has invested in a number of interventions aimed at alleviating mosquito-borne diseases such as malaria and lymphatic filariasis. These include improving diagnosis and treatment of the diseases, provision of subsidized anti-malarial (ALU) drugs, and use of insecticide-treated nets (ITN). Elsewhere, history and scientific evidence show that the battle against mosquito-borne diseases has succeeded significantly through massive spraying with DDT [38, 39], although ecological unfriendliness of the insecticide has made its continued use very controversial. However, this may have opened up the use of plant natural products with subtle anti-insect effects as a better alternative in reducing the burden of mosquito-borne diseases. Specific tropical plants are readily accessible by rural communities, and are eco-friendly and cost- effective.
Although only 40.3% of the respondents in the Bagamoyo District reported using plants in the control of insects and especially mosquitoes. Many of the mentioned plants are exotic, although they were introduced on the African coastal area long time ago, and are from plant families with anti-insect activities [40–42]. Of special significance is that the majority of respondents were open to the possibility of using a combination of different methods in an integrated vector management and were aware of different diseases caused by mosquito species such as malaria, elephantiasis/hydrocele and yellow fever. This could be attributed to regular community-based sensitizations from other malaria interventions such as the Bagamoyo Bednet [3, 43, 44] and on-going Malaria Vaccine Trial . The present study identified the need for regular outreach education on proper deployment of anti-insect plants within rural communities where there is continued use of this natural resource to add value to the current mosquito and malaria control strategies. Further R&D on the plant products deployed, their efficacy and modes of action would lay down the groundwork for selecting those that are particularly effective in different uses and in optimizing their deployment.
The present survey indicates that a good proportion of members of different communities in Bagamoyo District continue to use plants to control different disease vectors and other pests and that the majority are open to the possibility of integrating them with other interventions. Continued use of these medicinal plants needs to be encouraged and promoted as they have potential for complementing other interventions in vector and disease control. Tanzania has no clear policy or guidelines on development, registration and use of botanical insecticides. Elsewhere, some botanical insecticides have been developed for multipurpose uses in pest control, including mosquito control. This calls for the government to strengthen advocacy of botanical pesticides development, registration and regulation for public health benefits.
WHO: Global Strategic Framework for Integrated Vector Management. Geneva: WHO; 2004.
Ministry of Health: Health Sector Strategic Plan III (2009–2015); Partnerships for Delivering MDGs. Tanzania: Ministry of Health; 2009.
Premji Z, Ndayanga P, Shiff C, Minjas J, Lubega P, MacLeod J: Community based studies on childhood mortality in a malaria holoendemic area on the Tanzanian coast. Acta Trop 1997, 63: 101-109.
Davis JR, Hall T, Chee EM, Majala A, Minjas JN, Shiff CJ: Comparison of sampling anopheline mosquitoes by light-trap and human-bait collections indoors at Bagamoyo, Tanzania. Med Vet Entomol 1995, 9: 249-255.
Kawada H, Emmanuel A, Temu J, Minjas N, Matsumoto O, Iwasaki T, Takagi M: Field evaluation of spatial repellency of metofluthrin impregnated plastic strips against anopheles gambiae complex in Bagamoyo, coastal Tanzania. J Am Mosq Control Assoc 2008, 24: 404-409.
Shiff CJ, Minjas JN, Hall T, Hunt RH, Lyimo S, Davis R: Malaria infection potential of anopheline mosquitoes sampled by light trapping indoors in coastal Tanzania villages. Med Vet Entomol 1995, 9: 256-262.
Temu EA, Minjas JN, Coetzee M, Hunt RH, Shift CJ: The role of four anopheline species (Diptera: Culicidae) in malaria transmission in coastal Tanzania. Trans Royal Soc Trop Med Hyg 1998, 92: 152-158.
Mihale MJ, Dang AL, Selemani HO, Mugisha-Kamatanesi M, Kidukuli AW, Ogendo O: Use of indigenous knowledge in the management of field and storage pests around Lake Victoria basin in Tanzania. Afr J Environ SciTech 2009, 3: 251-259.
Su T, Mulla AS: Effects of neem products containing azadirachtin on blood feeding, fecundity, and survivorship of Culex tarsalis and Culex quinquefasciatus (Diptera: Culicidae). J Vector Ecol 1999, 24: 202-215.
Ndione RD, Faye O, Ndiaye M, Afoutou JM: Toxic effects of Neem products ( Azadirachta indica A Juss) on Aedes aegypti Linnaeus 1763 larvae. Afr J Biotechnol 2007, 6: 2846-2854.
Sharma PP, Sawant RJ: Indigenous traditional practices for eco-friendly management of the insect/pests in Maharashtra, India. Recent Res Sci Tech 2012, 4: 21-24.
Daniel B, Innocent E, Mbwambo ZH, Musharraf SG: Comparison of Mosquito Larvicidal activitity of Annona squamosa leaves growing in different eco-zone in Tanzania. Int JPharma Bio Sci 2011, 2: 557-565.
Magadula JJ, Innocent E, Otieno NJ: Mosquito larvicidal and cytotoxicactivity of 3 Annona species and Isolation of active principles. J Med Plant Res 2009, 3: 674-680.
Ruffo CK, Chilongola SB, Mabula CK: Catalogue of Lushoto Herbarium Tanzania. National Tree Seed Program. Morogoro, Tanzania; 1996.
Gideon H, Nyinondi P, Oyema G: Checklist of Tanzania species, Version 1. Tanzania: TanBIF COSTECH; 2012.
Adzu B, Abubakar MS, Izebe KS, Akumka DD, Gamaniel KS: Effect of Annona senegalensis rootbark extracts on Naja nigricotlis nigricotlis venom in rats. J Ethnopharmacol 2005, 96: 507-513.
Das NG, Goswami D, Rabha B: Preliminary evaluation of mosquito larvicidal efficacy of plant extract. J Vector Borne Dis 2007, 44: 147-148.
Kisanga AC MSc. Thesis. In Effect of Annona Formulations on Mosquitoes and non-Target Invertebrates in the Laboratory and Semi-Field Condition. Tanzania: University of Dar es Salaam; 2013.
Gueye S, Diop MT, SecK D, Sembene M: Biochemical fractions activity of Annona senegalensis Pers. Extract leaves to protect groundnut against the seed-beetle Caryedon serratusol . (Coleoptera, Chrysomelidea, Bruchinae). Int J Plant . Animal Environ Sci 2011, 1: 122-130.
De Boer H, Vongsombath C, Pålsson K, Bjork L, Jaenson TGT: Botanical repellents and pesticides traditionally used against hematophagous invertebrates in lao people’s democratic republic: a comparative study of plants used in 66 village. J Med Entomol 2010, 47: 400-414.
Rotimi J, Ekperusi OA: Effectiveness of Citrus oils as cowpea seed protectant against damage by the cowpea Bruchid Collosobruchus maculatus (F) (Coleopteran: Bruchidae). Adv Applied Sci Res 2012, 3: 3540-3544.
Laarif A, Zarrad K, Tayeb W, Ayed A, Souguirs S, Chaieb I: Chemical composition and Insecticidal activity of essential oils from Citrus aurantium (Rutaceae) Fruits Peels against two greenhouse insects; Spodoptera littoralis (Noctuidae) and Tuta absoluta (Gelechiidae). Adv Agric Sci and Eng Res 2013, 3: 825-830.
Giatropoulos A, Papachristos DP, Kimbaris A, Koliopoulos G, Polissiou MG, Emmanuel N, Michaelakis A: Evaluation of bioefficacy of three Citrus essential oils against the dengue vector Aedes albopictus (Diptera: Culicidae) in correlation to their components enantiomeric distribution. Parasitol Res 2012, 111: 2253-2263.
Oshaghi MA, Ghalandari R, Vatandoost H, Shayeghi M, Kamali-nejad M, Tourabi-Khaledi H, Abolhassani M, Hashemzade M: Repellent effect of extracts and essential oils of Citrus limon (Rutaceae) and Melissa officinalis (Labiatae) against main malaria vector, Anopheles stephensi (Diptera: Culicidae). Iranian J Public Health 2003, 32: 47-52.
Kweka JE, Franklin WM, Asanterabi L, Mahande AM, Mahande MJ, Massenga CP, Temu F, Lyatuu EE, Mboya M, Temu EA: Longitudinal evaluation of Ocimum and other plants effects on the feeding behavioural responses of mosquitoes (Diptera: Culicidae) in the field in Tanzania. Parasite Vectors 2008, 1: 42.
Asawalam EF, Emosairue SO, Hassanali A: Essential oil of Ocimum grattissimum (Labiatae) as Sitophilus zeamais (Coleoptera: Curculionidae) protectant. Afr J Biotechnol 2008, 7: 3771-3776.
Keita SM, Vincent C, Schmit JP, Ramaswamy S, Belanger A: Effects of various essential oils on Callosobruchus maculatus (F) (Coleoptera: Bruchidae). J Stored Products Res 2000, 36: 355-364.
Phasomkusolsil S, Soonwera M: Insect repellent activity of medicinal plant oils against Aedes aegypti (Linn.), Anopheles minimus (Theobald) and Culex quinquefasciatus Say based on protection time and biting rate. Southeast Asian J Trop Med Public Health 2010, 41: 831-840.
Malebo HM, Imeda C, Kitufe NA, Katani SJ, Sunguruma R, Magogo F, Tungu PK, Nyigo VA, Wiketye V, Mwaiko GL, Ogondiek JW, Mbogo GP, Mhame PP, Matata DZ, Malima R, Magesa SM, Massaga JJ, Malecela MN, Kitua AY: Repellence effectiveness of essential oils from some Tanzanian Ocimum and Hyptis plant species against afro-tropical vectors of malaria and lymphatic filariasis. J Med Plants Res 2013, 7: 653-660.
Chokechaijaroenporn O, Bunyapraphatsara N, Kongchuensin S: Mosquito repellent activities of Ocimum volatile oil. Phytomedicine 1994, 1: 135-139.
Orwa C, Mutua A, Kindt R, Jamnadass R, Simons A: Agroforestree Database:A Tree Reference and Selection Guide Version 4.0. ( ): 2009 http://www.worldagroforestry.org/treedb/AFTPDFS/Anacardium_occidentale.pdf (): 2009
Ileke KD, Olotuah OF: Bioactivity of Anacardium occidentale (L) and Allium sativum (L) powders and Oils Extracts against Cowpea Bruchid, Callosobruchus maculatus (Fab.) [Coleoptera: Chrysomelidae]. Int J Biol 2012, 4: 96-103.
Nnamani CV, Osayi EE, Atama CI, Nwachukwu C: Larvicidal effects of leaf, bark and nutshell of Anacardium occidentale on the larvae of Anopheles gambiae In Ebonyi State, Nigeria. Animal Res Int 2011, 8: 1353-1358.
Promsiri S, Naksathit A, Kruatrachue M, Thavara A: Evaluations of larvicidal activity of medicinal plant extracts to Aedes aegypti (Diptera: Culicidae) and other effects on a non target fish. Ins Sci 2006, 13: 179-188.
Mavundza EJ, Maharaj R, Finnie JF, Kabera G, Van Staden J: An ethnobotanical survey of mosquito repellent plants in uMkhanyakude district, KwaZulu-Natal province, South Africa. J Ethnopharmacol 2011, 137: 1516-1520.
Mandal MD, Mandal S: Coconut ( Cocos nucifera L: Arecaceae): in health promotion and disease prevention. Asian Pacific J Trop Med 2011, 1: 241-247.
Konan YL, Sylla MS, Doannio JM, Traoré S: Comparison of the effect of two excipients (karite nut butter and vaseline) on the efficacy of Cocos nucifera , Elaeis guineensis and Carapa procera oil-based repellents formulations against mosquitoes biting in Ivory Coast. Parasite 2003, 10: 181-184.
Gourevitch A: Better Living Through Chemistry; Ddt Could Save Millions of Africans From Dying of Malaria- If Only Environmentalists Would Let It. WA: Washington Monthly; 2003.
East African Community HEALTH: Malaria facts: Malaria Prevention and Control. ” - Retrieved on 05th December, 2012 http://www.eac.int/health/index.php?option=com_content&view=article&id=95%3Aclassification-system&catid=15%3Adiseases&Itemid=32 ” - Retrieved on 05th December, 2012
Watt MJ, Breyer-Brandwijk GM: Medicinal and Poisonous Plants of Southern and Eastern Africa. Edinburg and London: E and S Livingstone Ltd; 1962.
Gilbert MG: Flora of Ethiopia, Rutaceae. Sweden: University of Ethiopia and Uppsala University Press; 1989.
Hutching A, Haxtonscott A, Lewis G, Cunninghham A: Zulu Medicinal Plants, an Inventory. Scottsville, South Africa: University of Natal Press; 1996.
Bagamoyo bednet project: An Annual Report. Tanzania: USAID; 1991.
Shiff CJ, Winch P, Minjas J, Premji Z: The Implementation and Sustainability of Insecticide-Treated Mosquito net (ITN) Program for Malaria Control in Rural Africa. Lesson Learned from the Bagamoyo Bednet Project. A Summary Report. Tanzania: USAID, SARA and HHRAA; 1996.
Medicine for Malaria Venture (MMV): New Malaria Clinical Trial Site Inaugurated at Bagamoyo, Tanzania. . Deposited on 10 May 2007; accessed on 09/02/2012 http://www.mmv.org/newsroom/news/new-malaria-clinical-trial-site-inaugurated-bagamoyo-tanzania
We are thankful to the Office of the District Medical Officer and District Community Development Officer, village leaders and study participants for their willingness to collaborate with researchers. We are thankful to DelPHE-British Council for the funds to carry out this study.
The authors declare that they have no competing interests.
IE, MSM and HA contributed to the study conception, design, fieldwork, data analysis, interpretation and drafting, revision and final approval of the manuscript. KNW, MPP and KE contributed to fieldwork, data analysis, data interpretation, revision and final approval of the manuscript. All authors read and approved the final manuscript.
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Innocent, E., Hassanali, A., Kisinza, W.N. et al. Anti-mosquito plants as an alternative or incremental method for malaria vector control among rural communities of Bagamoyo District, Tanzania. J Ethnobiology Ethnomedicine 10, 56 (2014). https://doi.org/10.1186/1746-4269-10-56
- Vector control
- Medicinal plants
- Azadirachta indica
- Annona species