DOI: http://dx.doi.org/10.18273/revsal.v48n3-2016002

Design and construction of a trap for
the surveillance of Aedes (Stegomyia)
aegypti (Diptera: Culicidae)

Jessica Peña Torres¹, Mónica Navarro Aranda¹, Héctor Julio Parra Moreno¹, Jonny Edward Duque Luna¹

1. Universidad Industrial de Santander. Bucaramanga, Colombia
Correspondence: Jonny Edward Duque Luna Address: Facultad de Salud UIS, Carrera 32 29-31, Bucaramanga, Santander, Colombia.
E-mail: jonedulu@uis.edu.co Phone number: + 7 6344000 Ext. 3159
]]> Received: 16/11/2015 Approved: 17/03/2016 Published online: 20/05/2016

Suggested citation: Peña Torres J, Navarro Aranda M, Parra Moreno J, Duque Luna JE. Design and construction of a trap for the surveillance of Aedes (Stegomyia) aegypti (Diptera: Culicidae). Rev Univ Ind Santander Salud. 2016; 48(3): 285-294.

ABSTRACT

Introduction: Understanding Aedes (Stegomyia) aegypti (L) behavior will provide insight into the design of entomological surveillance devices. Objective: Design and build a trap for surveillance Aedes aegypti. Methodology: We examined egg-laying preference and the ability to capture adult Ae. aegypti using containers that differed in shape, color and internal retention systems. The characteristics most effective in capturing adult mosquitoes were used to develop a prototype efficient in trapping mosquitoes. The shape of the prototype was determined by examining oviposition preference of containers having circular, square and triangular bases. Color discrimination was assessed by covering the bodies of the containers in green (523 nm), red (621 nm), white and gray (the chromatic scale from black to white). The propensity of Ae. aegypti to enter the containers was assessed by incorporating an entrance to the container in the shape of an inverted truncated oblique pyramid with base, middle and apex dimensions of 6.5-4 cm, 5-2.5 cm and 4.5-1.5 cm, respectively. All variables as the number of egg and adults captured in treatments were subjected to variance analysis; only data with P < 0.05 were considered significant. Results: Our results indicate that neither shape nor entrance dimension attract ovipositing Ae. aegypti females [K-W: H (3, N = 64) = 0.3222769 p = 0.9558 and K-W: H (3, N= 16) = 4.284865 p = 0.2323, respectively]. However, we found that the color red had a high positive response [K-W: H (4, N = 80) = 20.81260 p = 0.0003]. Conclusions: The final design of the trap resembled a truncated pyramid with a red square base, a black oblique entrance of 5 x 2.5 cm and an internal retention system. The final prototype had a capture rate of 90.5 ± 5% under laboratory conditions.

Keywords: Oviposition, design, disease vectors, behavior, insect control.

Diseño y construcción de una trampa para el monitoreo
de Aedes (Stegomyia) aegypti (Diptera: Culicidae)

RESUMEN

Introducción: Aspectos etológicos de Aedes (Stegomyia) aegypti (L) proporcionan el conocimiento para diseñar dispositivos para la vigilancia entomológica. Objetivo: Diseñar y construir una trampa para el monitoreo de Aedes aegypti. Metodología: Experimentos de ovipostura y captura de alados de Ae. aegypti fueron realizados con contenedores diseñados de acuerdo a forma, color y sistemas internos de retención. Las contenedores con mayor eficiencia de ovipostura y captura de adultos fueron usados para diseñar el prototipo de la trampa. La forma del dispositivo se determinó por medio de la preferencia de ovoposición con prototipos de base circular, cuadrada y triangular. La discriminación por el color, se evaluó cubriendo los contenedores de color verde (523 nm), rojo (621 nm), blanco y gris (que pertenecen a la escala cromática que va del negro al blanco), todos con una abertura de entrada de color negro. La capacidad de ingreso de Ae. aegypti a los contenedores fue evaluada incorporando una entrada al contenedor en forma de pirámide oblicua truncada invertida con dimensiones en la base, área media y ápice de 6,5-4 cm, 5-2,5 cm y 4,5-1,5 cm respectivamente. Todos los experimentos fueron sometidos a análisis de variancia con el programa "Statistica v11", únicamente datos con p < 0.05 se consideraron significativos. Resultados: Los resultados indicaron que la forma no influencia la atracción de ovoposición de las hembras de Ae. aegypti [K-W: H (3, N = 64) = 0.3222769 p = 0.9558] y el color rojo presenta alta selección (K-W: H (4, N = 80) = 20.81260 p = 0.0003). Las dimensiones de la entrada no tienen significancia en la captura de los mosquitos[K-W: H (3, N= 16) = 4.284865 p = 0.2323]. Conclusión: El diseño final de la trampa tuvo forma de pirámide truncada de base cuadrada de color rojo, con entrada oblicua negra de dimensiones de entrada 5 x 2,5 cm más un sistema interno de retención. El prototipo final presentó 90.5 ± 5 % de captura en los experimentos de laboratorio.

Palabras clave: Ovoposición, diseño, vectores de enfermedades, comportamiento, control de insectos.

The control of insects that transmit human disease requires appropriate devices for entomological surveillance. In monitoring diseases such as Dengue, Chikungunya and Zika, several tools have been created to potentiate the active and passive search for Aedes aegypti^1-4. Depending on the life stage of the mosquito, surveillance measures such as ovitraps, larvitraps, pupae and adults collection have been used to assess the presence and density of mosquito populations. While the above methods provide information on the number of eggs, larvae and pupae in the areas where they are deployed, they are unable to accurately estimate genuine densities of local mosquito populations⁵.

Monitoring of Ae. aegypti adults is a more attractive option than monitoring immature life stages, as it more accurately assesses the actual density of the mosquito population. Therefore, new vectorsurveillance tools have been designed to capture adult mosquitoes. These include various vacuums and traps that electromechanically collect insects, such as: BG-Sentinel™, Fay-Prince trap, MosquiTRAP™, stickyovitrap, Adultrap, and Sticky Trap^3,4,6,7.

Traps that collect adult mosquitoes have many advantages, including their ability to provide material for physiological, morphometric and genetic analyses as well as to allow for the determination of gonadotropic status and host blood sources. Such information is important to understand mosquito population dynamics and to establish strategies for disease control based on the vector population^8-10. An additional benefit of adult mosquito collection is that it allows for viral analysis in the areas of collection¹¹.

Despite our extensive knowledge of the biology and ecology of Ae. aegypti, there is currently no standard model regarding the methodology for designing devices that efficiently capture adult mosquitoes. Ae. aegypti behavioral responses to visual, chemical and tactile stimuli in selecting oviposition sites have been studied¹². However, these stimuli are only detected from relatively short distances. Further, mosquitoes in flight respond to such stimuli visually^13,14. Thus, the design of mosquito traps should account for aspects such as shape and color in order to maximize capture.

Aedes aegypti selects various water-holding objects for oviposition. These objects include containers, tires, bottles, bottle caps, etc.¹⁵. While gravid Ae. aegypti females utilize a wide array of containers for egg-laying, they have a documented preference for dark places and surfaces¹⁶. The dark surface preference for oviposition is a pattern that involves black-white contrast^16-19. Moreover, female Ae. aegypti can discriminate within the color spectra between ultraviolet 323 nm and red 621 nm, with peaks in ultraviolet 323-345 nm and green 523 nm²⁰.

This study aims to contribute to the design of devices that will capture gravid female Ae. aegypti using oviposition site selection behavior as a guideline.

MATERIALS AND METHODS

Biological material. Experiments were conducted with Ae. aegypti, Rockefeller strain, maintained in 40 x 40 x 40 cm cages in an insectary at 25 ± 5° C, 70 ± 5% humidity and a 12:12 photoperiod. Female mosquitoes were continuously offered a 10% honey solution (75% carbohydrates). When eggs were needed to obtain adults, females were fed by inserting the forearm of a researcher into the cage for 15 minutes (authorized by the ethics committee). Once females were fed, they were held in the same cage and allowed to lay their eggs on filter paper in a glass containing 50 mL of mineral water.

Adult mosquitoes used for trap design experiments. Four days after blood feeding, the filter paper with the laid eggs was removed, labeled and left to dry for three days under the same conditions. Eggs were stimulated to hatch in plastic trays (35.5cm x 21.5cm x 6.5cm) with ca. 3,000 mL of dechlorinated water with 1g of TetraminTM fish concentrate. Pupated larvae were transported to holding cages where adults emerged for use in experiments.

A container filled with 30 mL of dechlorinate water and lined with filter paper (the oviposition substrate) was placed into each trap. Larvae about to reach the pupal stage were taken from the breeding colony and isolated in a breeding cage until they completed their life cycle. Approximately two hundred individuals at a sex ratio of 1:1 were used. The resulting adults were fed with the sugar solution and allowed to mate. Mated females were subsequently blood-fed for 15 to 20 minutes, rested for ~24 hours, and then separated and transported to the test cages. A total of eighty gravid females of the same physiological age and a maximum of five days after pupating were placed in four cages of 70 x 70 x 70 cm for the experiments; each cage served as a replicate (four replicates) with twenty females and three experimental containers (circular, square and triangular) distributed at equal distances from each other (20 cm). A colorless glass container filled with 30 mL of distilled water and lined with filter paper served as a control and was placed in the center of each cage. A bowl covered with filter paper and containing sugar water was placed in the lower right-hand corner to prevent mortality due to the absence of feeding. Each experiment was conducted for seven days. Control and experimental containers were replaced every 24 hours. When containers were replaced, they were rotated counterclockwise to avoid selection bias¹⁹. Eggs laid on the collected filter paper were counted daily using a stereoscopic magnifier (Olympus S2X9). To determine whether the control treatment affected oviposition behavior, a second experiment was carried out simultaneously (under the same conditions) without the control container.

Response to container color: Based on the results of the shape experiment, we developed a test to asses whether female Ae. aegypti were able to select an oviposition site in accordance with the color of the container. Cardboard containers of 13 x 13 x 20 cm were built with a 3 x 3 cm hole at the top and a black cardboard edge^17,18 (Figure 1B). Four colors were selected to cover the body of the container: green equivalent to 523 nm, red equivalent to 621 nm^20,21, white [of the documented black-white combination^16,19] and gray (similar to the black-white but with a reduction in the intensity of white). The control treatment was a container covered in imitation grass paper. The experimental cages were also lined with imitation grass paper from the bottom half to the base (Figure 1B). A total of eighty females were used: twenty females per cage, four replicates. Each experiment was conducted for seven days. The number of eggs laid in each treatment was determined as described in the previous section.

Entrance design and the mosquito retention system of the containers. Based on the results of the shape and color experiments, we attempted to build an entrance to the trap according to female Ae. aegypti behavioral preferences. Trap entrance: It was suggested to us that mosquito access to the container should be in the shape of an inverted, truncated pyramid to facilitate mosquito entry and prevent their escape. Three variations of the trap entrance were assessed for their ability to capture mosquitoes. Entrance 1: external measurement 6.5 cm, internal measurement 4 cm, height 5 cm. Entrance 2: external measurement 5 cm, internal measurement 2.5 cm, height 5 cm. Entrance 3: external measurement 4.5 cm, internal measurement 1.5 cm, height 4 cm (Figure 1C). Containers were built with translucent cellulose acetate and measured 13 x 13 x 20 cm. Except for the entrances, which were black, the containers were covered with red paper based on the results of the color experiment. A total of sixteen containers were used, distributed in three treatments (entrance dimensions) plus one control per cage; four replicate experiments were conducted. 160 females in the same physiological conditions as the previous experiments were used; females were distributed in groups of four per cage. Oviposition glasses were covered with a fine net to prevent females from laying eggs. The control treatment was a 13 x 13 x 20 cm container with a flat 3 x 3 cm entrance (the same entrance used in the color experiment). We counted the number of mosquitoes captured in each treatment after 168 h.

Retention mechanisms. After determining the dimensions of the entrance, two prototypes were assessed for their ability to retain mosquitoes within the trap.

Description of the first prototype (A). Prototype A consisted of a red parallelepiped structure with two sides opposite the mosquito net fabric. A black cardboard wall with vertical slots divided the container in two. This was set up parallel to the black net. The purpose of the slots was to allow the passage of light and air stimuli and to allow the mosquitoes to move from one side of the wall to the other. The structure also had a lower compartment where the oviposition substrate was placed (covered with a net barrier). An entrance in the shape of an oblique truncated pyramid was placed at the top of the trap; the oblique slope blocked the entry of light from outside (Figure 2A)

Description of the second prototype (B). Prototype B consisted of a red parallelepiped container made of three compartments: upper, middle and lower. The entrance of the trap was located in the upper compartment (on the edge between the top and front side) and resembled an oblique truncated pyramid. The upper and middle compartments were connected through a triangular hole. The middle compartment had two sides opposite the net fabric and a black internal wall with slots to allow the passage of light and air stimuli and to allow mosquito movement from one side of the wall to the other. The lower compartment contained the oviposition substrate covered with a cloth barrier (Figure 2B).

The two experimental models were manufactured in cardboard and covered with red paper. The translucent cellulose acetate surface allowed for the flow of light and air through the mosquito net. The entrance mechanism of the containers was black. The prototype traps were assessed together in a cage along with a control treatment (of the same characteristics as the color experiment). 160 females were used with a distribution of 40 per cage, for a total of four replicates. The experiment was carried out for seven days. Mosquito capture was assessed twice, on day two and day four, to determine whether the mosquitoes were escaping from the traps.

Construction of the final prototype. Based on the results of the capture experiments of prototypes A and B and the escape test for prototype B, a final design of the trap was made ("prototype C"; Figure 2C). At this stage, the trap was defined as a product in terms of interface, materials, the production process, the number of parts and their sequence of use²². Using this methodology, a trap was built from polymethly methacrylate with a red latex coating that had the consensus dimensions of the experimental results and that implemented industrial design methodology (Figure 3). A final test was conducted of the consensus prototype to determine female capture rate. Prototype C was inserted into a cage along with a control treatment (a 13 x 13 x 20 cm container with a flat 3 x 3 cm entrance). 200 females were used for this experiment. After 4 days, the number of females captured was counted.

Escape test of the final prototype. Determination of the number of mosquitoes escaping from the prototype C was based on the escape experiment of prototype B.

Statistical analysis. Were used the Kolmogorov- Smirnov test for normality indicated that the data (experiments) are no-normal distribution. The results were analyzed using test non-parametric Kruskall- Wallis (KW), only P < 0.05 were considered significant and multiple-comparisons tests were used when data were significantly different, the software uses in all analyses was. Statistica v11.

RESULTS

Visual attraction to the shape of the container. All treatments were positive in terms of the presence of laid eggs. Although we detected no significant differences [K-W: H (3, N = 64) = 0.3222769 p = 0.9558] (Figure 1A), the control treatment had the highest number of eggs while the triangular container had the fewest (Table 1). In experiments where the control treatment was not included, the square container had the highest number of eggs, although no significant differences were found [K-W: H (2, N= 48) = 0.2650122 p = 0.8759], (Table 1). These results show that container shape does not influence oviposition site selection of gravid Ae. aegypti females.

Response to color. The red-black containers were selected significantly more often for oviposition compared to the other containers [K-W: H (4, N = 80) = 20.81260 p = 0.0003] (Table 2). The green-black containers were the least attractive for the females to lay their eggs. These results indicate that the red-black contrast influences oviposition site selection of Ae. aegypti females (Figure 1B).

Retention mechanism and mosquito escape rate from prototypes. Prototype A was less efficient than prototype B at capturing mosquitoes (Table 4). Capture of Ae. aegypti females by prototype B were significantly more effective on day two [K-W: H (2, N= 12) = 9.202679 p = 0.0100] and day four [K-W: H (2, N= 12) =6.929211 p =0.0313] (Figure 2A, 2B; Table 4). Further, all 20 females introduced into prototype B during our experiments remained inside the trap after four days. For comparison, the control trap had a 78% escape rate. Based on these results, prototype B was selected as the reference for the final trap design. However, we made additional adjustments (described below) to the design in order to capture more mosquitoes.

Adjustment to the retention mechanism. We modified the trap entrance, increasing its width and curving the internal entrance channel (Figure 2C) in order to block the entry of light from outside the trap. While we observed no significant difference between the results using this modified entrance and the one used previously [K-W: H (2, N= 12) = 3.566254 p =0.1681], the capture rate of the trap with these changes was increased (Table 5). These results and those of the previous experiments established mosquito attraction, entry and retention within the trap, each of which were considered for the final design of the product.

Description of the final prototype. The final prototype, prototype C, has the same structural characteristics as prototype B, utilizing a black entrance in the same location but with the entrance modifications described above (Figure 2C). The functional performance of the final prototype (Figure 3A, 3B), built with manufacturing materials, was exceptional: prototype C captured 181 females (90.5 %) of the total mosquitoes in the test cage compared to only 4 (2.2%) for the control. The escape rate of prototype C was 0%. We refer to this prototype as StegTrap.

DISCUSSION

The design and development of monitoring tools such as mosquito traps requires an understanding of how individuals behave when faced with the options provided by their surroundings. The behavior of Ae. aegypti females in selecting suitable oviposition sites depends on the presence of a water source^15,23. Based on this premise, building devices to capture this species can be highly effective provided they are designed with the objective of providing the mosquito with suitable oviposition substrates.

The results reported here are consistent with previous studies that examined oviposition behavior of Ae. aegypti females. Culicidae females will oviposit in a wide variety of containers -cans, tires, caps, bottle and other types of containers¹⁵- results confirmed by the trap models assessed in this study. Aedes aegypti females look for places where their eggs can survive due to the presence of semiochemicals in the water and not because of the shape of the container²³. Therefore, the volumetric shape of traps can focus on aesthetic requirements (unit, harmony, finishes), functionality (storage and transport), usability (monitoring and cleaning) and production costs (production processes and materials). These characteristics ensure the production and marketing of traps will contribute to addressing public health problems²².

We report here that a red-black contrast present at the entrance of the trap results in higher mosquito capture than the other colors examined. Although it was evident that females preferred this contrast, no current trap uses this characteristic in their design. For example, traps on the market for capturing Ae. aegypti such as the BG-Sentinel™ and the Fay-Prince trap contrast a black entrance with the white body while MosquiTRAP™, Sticky Ovitrap and Adultrap are completely black^3,6,7. Therefore, the trap presented here may be the first to use the red-black combination suggested as optimal based on the natural behavior of Ae. aegypti females in selecting an oviposition container. A trap that provides the preferred visual stimulation in the mosquitoes' natural environment will undoubtedly increase its capturing capacity.

Regarding the proposed entrance mechanism, our prototype differs from the traps mentioned above. The entrance of our trap takes the shape of an inverted truncated pyramid with a square base. This ensures that no light enters the trap, which can disorient the captured mosquitoes¹⁴. In order to have a wide entrance like traps currently on the market, we modified the entrance according to the capturing ability of prototype B. This changed the final prototype entrance from 5 cm to 7 cm. A curved wall system was added to the entrance channel, leading to an escape rate of 0% (Figure 2C). Upon testing the performance of this new concept, we observed an increase in capture rate (Table 2), although this result did not significantly differ from those found using prototype B.

Using the results from this study, we developed an experimental prototype trap referred to as StegTrap that is specifically designed to capture gravid Aedes (Stegomyia) aegypti females. The prototype uses polymethly methacrylate (as its rigid parts) and has a red latex coating. This invention is made up of 1) a body built in the shape of a truncated pyramid with a square base, 2) an entrance for mosquitoes with a zipper to prevent mosquitoes from escaping at the time of trap removal and subsequent transport, 3) two trays that form an upper and a lower compartment, 4) a vertical wall with slots that act as a false exit, 5) a reservoir of the bait that attracts the gravid females, and 6) a red elastic cover (Figure 3). The elastic cover, whose patent has been applied for Parra, et al. (2014)²⁶, is used only when the trap is installed in the field.

StegTrap is highly effective in capturing Ae. aegypti mosquitoes, with a capture rate under laboratory conditions of 90.5%. Thus, we took an interdisciplinary approach between industrial design and entomology to develop a trap that addresses the capture of mosquitoes that transmit vector-borne diseases. This approach resulted in a product designed for simple assembly, cleaning, sample extraction and field and laboratory safety²⁷.

CONFLICT OF INTEREST

This study no has conflict of interest

ACKNOWLEDGMENTS

This study was conducted thanks to the research support program of the "Vicerrectoría de Investigación of the Universidad Industrial de Santander" for Project 5696.

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