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The Dynamics of an Adult Population of Aedes aegypti in Relation to Dengue Haemorrhagic Fever in Bangkok

(1) An adult population of Aedes aegypti was studied in the residential compound of a Buddhist temple, Wat Samphaya, in Bangkok. The objectives of the study were to measure possible changes in population size, survival rate and movement throughout the year in order to test the hypothesis that fluctu...

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Published in:The Journal of animal ecology 1969-10, Vol.38 (3), p.661-702
Main Authors: Sheppard, P. M., Macdonald, W. W., Tonn, R. J., Grab, B.
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Macdonald, W. W.
Tonn, R. J.
Grab, B.
description (1) An adult population of Aedes aegypti was studied in the residential compound of a Buddhist temple, Wat Samphaya, in Bangkok. The objectives of the study were to measure possible changes in population size, survival rate and movement throughout the year in order to test the hypothesis that fluctuations in these parameters accounted for the resurgence of A. aegypti-transmitted dengue haemorrhagic fever during the wet season. Concurrent studies were made of larval populations both in Wat Samphaya and elsewhere in and around Bangkok. (2) Mark-release-recapture techniques were used for estimating the adult population parameters. Each wild-caught mosquito before release was etherized and given a unique number by marking with spots of quick-drying paint on the wings and/or thorax. (3) A comparison of the amount of blood in the stomach and the ovarian condition of individual females recaptured on more than one occasion showed little correlation between the feeding pattern and ovarian development. The presence of fresh blood in a proportion of gravid and semi-gravid females made it impractical to score their ovarian stage unequivocably without dissection. Consequently, it proved impossible to measure the average length of the gonotrophic cycle in the wild population. (4) Dispersal of individual mosquitoes was studied by observing the distance each had moved between release and subsequent recapture. Both sexes tended to move further in the first 24-h period after release than later, perhaps because of the effects of handling. There was no evidence of an effect of the time of the year on the amount of movement, nor was there any difference in this respect between the sexes. Although it was found that males moved more than females in the first 24 h, the females lived longer and therefore ultimately moved at least as far. It was estimated that only about 40% of individuals released at random in the study area (94 X 56 m) remained there after 24 h. Taking into account this loss, the mean distance moved by mosquitoes in 24 h was estimated to be 37 m. Despite this movement, the mosquitoes were not randomly distributed among the rooms, probably owing to some rooms being more attractive than others rather than to a non-random distribution of breeding places. (5) The 24-h survival rate using the model developed by Fisher & Ford (1947), averaged over 12 months, was 0.70 for males and 0.81 for females. There was no significant difference in the values between months but th
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M. ; Macdonald, W. W. ; Tonn, R. J. ; Grab, B.</creator><creatorcontrib>Sheppard, P. M. ; Macdonald, W. W. ; Tonn, R. J. ; Grab, B.</creatorcontrib><description>(1) An adult population of Aedes aegypti was studied in the residential compound of a Buddhist temple, Wat Samphaya, in Bangkok. The objectives of the study were to measure possible changes in population size, survival rate and movement throughout the year in order to test the hypothesis that fluctuations in these parameters accounted for the resurgence of A. aegypti-transmitted dengue haemorrhagic fever during the wet season. Concurrent studies were made of larval populations both in Wat Samphaya and elsewhere in and around Bangkok. (2) Mark-release-recapture techniques were used for estimating the adult population parameters. Each wild-caught mosquito before release was etherized and given a unique number by marking with spots of quick-drying paint on the wings and/or thorax. (3) A comparison of the amount of blood in the stomach and the ovarian condition of individual females recaptured on more than one occasion showed little correlation between the feeding pattern and ovarian development. The presence of fresh blood in a proportion of gravid and semi-gravid females made it impractical to score their ovarian stage unequivocably without dissection. Consequently, it proved impossible to measure the average length of the gonotrophic cycle in the wild population. (4) Dispersal of individual mosquitoes was studied by observing the distance each had moved between release and subsequent recapture. Both sexes tended to move further in the first 24-h period after release than later, perhaps because of the effects of handling. There was no evidence of an effect of the time of the year on the amount of movement, nor was there any difference in this respect between the sexes. Although it was found that males moved more than females in the first 24 h, the females lived longer and therefore ultimately moved at least as far. It was estimated that only about 40% of individuals released at random in the study area (94 X 56 m) remained there after 24 h. Taking into account this loss, the mean distance moved by mosquitoes in 24 h was estimated to be 37 m. Despite this movement, the mosquitoes were not randomly distributed among the rooms, probably owing to some rooms being more attractive than others rather than to a non-random distribution of breeding places. (5) The 24-h survival rate using the model developed by Fisher &amp; Ford (1947), averaged over 12 months, was 0.70 for males and 0.81 for females. There was no significant difference in the values between months but there was between the sexes. A population model developed to take into account movement in and out of the study area gave mean rates of 0.72 for males and 0.84 for females, again with no difference between months but a significant difference between sexes. The estimates of survival rate are too low because of permanent emigration of some marked insects. An adjusted rate obtained from an estimate of the number of new mosquitoes emerging in the study area was 0.88 for both sexes combined, giving an expectation of life of 8.5 days. (6) Estimates of population size were obtained using the models of Fisher &amp; Ford and of Jolly (1965) as well as the model which took into account movement. There was no significant difference in size between the male and female populations, but there was some evidence that population size may change from time to time. The changes were not correlated in any simple way with temperature or rainfall and there was no striking increase in population size in the wet season. 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M.</creatorcontrib><creatorcontrib>Macdonald, W. W.</creatorcontrib><creatorcontrib>Tonn, R. J.</creatorcontrib><creatorcontrib>Grab, B.</creatorcontrib><title>The Dynamics of an Adult Population of Aedes aegypti in Relation to Dengue Haemorrhagic Fever in Bangkok</title><title>The Journal of animal ecology</title><description>(1) An adult population of Aedes aegypti was studied in the residential compound of a Buddhist temple, Wat Samphaya, in Bangkok. The objectives of the study were to measure possible changes in population size, survival rate and movement throughout the year in order to test the hypothesis that fluctuations in these parameters accounted for the resurgence of A. aegypti-transmitted dengue haemorrhagic fever during the wet season. Concurrent studies were made of larval populations both in Wat Samphaya and elsewhere in and around Bangkok. (2) Mark-release-recapture techniques were used for estimating the adult population parameters. Each wild-caught mosquito before release was etherized and given a unique number by marking with spots of quick-drying paint on the wings and/or thorax. (3) A comparison of the amount of blood in the stomach and the ovarian condition of individual females recaptured on more than one occasion showed little correlation between the feeding pattern and ovarian development. The presence of fresh blood in a proportion of gravid and semi-gravid females made it impractical to score their ovarian stage unequivocably without dissection. Consequently, it proved impossible to measure the average length of the gonotrophic cycle in the wild population. (4) Dispersal of individual mosquitoes was studied by observing the distance each had moved between release and subsequent recapture. Both sexes tended to move further in the first 24-h period after release than later, perhaps because of the effects of handling. There was no evidence of an effect of the time of the year on the amount of movement, nor was there any difference in this respect between the sexes. Although it was found that males moved more than females in the first 24 h, the females lived longer and therefore ultimately moved at least as far. It was estimated that only about 40% of individuals released at random in the study area (94 X 56 m) remained there after 24 h. Taking into account this loss, the mean distance moved by mosquitoes in 24 h was estimated to be 37 m. Despite this movement, the mosquitoes were not randomly distributed among the rooms, probably owing to some rooms being more attractive than others rather than to a non-random distribution of breeding places. (5) The 24-h survival rate using the model developed by Fisher &amp; Ford (1947), averaged over 12 months, was 0.70 for males and 0.81 for females. There was no significant difference in the values between months but there was between the sexes. A population model developed to take into account movement in and out of the study area gave mean rates of 0.72 for males and 0.84 for females, again with no difference between months but a significant difference between sexes. The estimates of survival rate are too low because of permanent emigration of some marked insects. An adjusted rate obtained from an estimate of the number of new mosquitoes emerging in the study area was 0.88 for both sexes combined, giving an expectation of life of 8.5 days. (6) Estimates of population size were obtained using the models of Fisher &amp; Ford and of Jolly (1965) as well as the model which took into account movement. There was no significant difference in size between the male and female populations, but there was some evidence that population size may change from time to time. The changes were not correlated in any simple way with temperature or rainfall and there was no striking increase in population size in the wet season. 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M.</au><au>Macdonald, W. W.</au><au>Tonn, R. J.</au><au>Grab, B.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>The Dynamics of an Adult Population of Aedes aegypti in Relation to Dengue Haemorrhagic Fever in Bangkok</atitle><jtitle>The Journal of animal ecology</jtitle><date>1969-10-01</date><risdate>1969</risdate><volume>38</volume><issue>3</issue><spage>661</spage><epage>702</epage><pages>661-702</pages><issn>0021-8790</issn><eissn>1365-2656</eissn><abstract>(1) An adult population of Aedes aegypti was studied in the residential compound of a Buddhist temple, Wat Samphaya, in Bangkok. The objectives of the study were to measure possible changes in population size, survival rate and movement throughout the year in order to test the hypothesis that fluctuations in these parameters accounted for the resurgence of A. aegypti-transmitted dengue haemorrhagic fever during the wet season. Concurrent studies were made of larval populations both in Wat Samphaya and elsewhere in and around Bangkok. (2) Mark-release-recapture techniques were used for estimating the adult population parameters. Each wild-caught mosquito before release was etherized and given a unique number by marking with spots of quick-drying paint on the wings and/or thorax. (3) A comparison of the amount of blood in the stomach and the ovarian condition of individual females recaptured on more than one occasion showed little correlation between the feeding pattern and ovarian development. The presence of fresh blood in a proportion of gravid and semi-gravid females made it impractical to score their ovarian stage unequivocably without dissection. Consequently, it proved impossible to measure the average length of the gonotrophic cycle in the wild population. (4) Dispersal of individual mosquitoes was studied by observing the distance each had moved between release and subsequent recapture. Both sexes tended to move further in the first 24-h period after release than later, perhaps because of the effects of handling. There was no evidence of an effect of the time of the year on the amount of movement, nor was there any difference in this respect between the sexes. Although it was found that males moved more than females in the first 24 h, the females lived longer and therefore ultimately moved at least as far. It was estimated that only about 40% of individuals released at random in the study area (94 X 56 m) remained there after 24 h. Taking into account this loss, the mean distance moved by mosquitoes in 24 h was estimated to be 37 m. Despite this movement, the mosquitoes were not randomly distributed among the rooms, probably owing to some rooms being more attractive than others rather than to a non-random distribution of breeding places. (5) The 24-h survival rate using the model developed by Fisher &amp; Ford (1947), averaged over 12 months, was 0.70 for males and 0.81 for females. There was no significant difference in the values between months but there was between the sexes. A population model developed to take into account movement in and out of the study area gave mean rates of 0.72 for males and 0.84 for females, again with no difference between months but a significant difference between sexes. The estimates of survival rate are too low because of permanent emigration of some marked insects. An adjusted rate obtained from an estimate of the number of new mosquitoes emerging in the study area was 0.88 for both sexes combined, giving an expectation of life of 8.5 days. (6) Estimates of population size were obtained using the models of Fisher &amp; Ford and of Jolly (1965) as well as the model which took into account movement. There was no significant difference in size between the male and female populations, but there was some evidence that population size may change from time to time. The changes were not correlated in any simple way with temperature or rainfall and there was no striking increase in population size in the wet season. The estimate of the mean daily population over the year, corrected for movement, was 1120, whilst that using the Jolly model was 1093. (7) It is suggested that the normal procedure of fogging with insecticide within a circle of radius 60 m, the centre being a house where a case of dengue haemorrhagic fever occurred, is not likely to kill more than 50% of infected mosquitoes. (8) The study indicates that the fluctuations in the amount of movement, the expectation of life and the population size throughout the year are inadequate to account for changes in the incidence of dengue haemorrhagic fever.</abstract><cop>Oxford</cop><pub>Blackwell Scientific Publications</pub><doi>10.2307/3042</doi><tpages>42</tpages></addata></record>
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source JSTOR Archival Journals and Primary Sources Collection
subjects Analysis of variance
Emigration
Estimation methods
Mosquitos
Population dynamics
Population estimates
Population size
Rain
Rainy seasons
Survival rates
title The Dynamics of an Adult Population of Aedes aegypti in Relation to Dengue Haemorrhagic Fever in Bangkok
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