2,198 research outputs found

    Gambaran Pemberian Obat Masal Pencegahan Kaki Gajah di Wilayah Kerja Puskesmas Welamosa Kecamatan Wewaria Kabupaten Ende Tahun 2011-2015

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    Elephant Foot Disease (Lymphatic Filariasis), hereinafter referred to as filariasis, is a chronic infectious disease caused by filarial worms that attack the lymph nodes. Data from the Ende District Health Office shows that up to 2015 there were 233 cases of filariasis with the highest number found in the welamosa Public Health Center in the authority district of 67 people. The purpose of this study was to determine the description of mass drug prevention of elephantiasis in the working area of Welamosa Health Center in Wewaria District, Ende Regency in 2011-2015. The type of research used is descriptive with a cross-sectional design using a stratified random sampling technique with a sample of 380 samples. The results showed that people who drank mass medicine to prevent elephantiasis in 2011 amounted to 51%, in 2012 amounted to 52%, in 2013 amounted to 56%, in 2014 and 2015 respectively 62%. People who do not take medication are caused by not getting medication and not taking medication. Residents who get the medicine but do not drink it are more due to no desire to drink that because of the side effects of drugs/allergies while the people who do not get the medicine are more due to the unwillingness/willingness to take the drug

    The Temperature Dependent Development of Bactericera cockerelli (Sulc) from south Texas (Hemiptera: Triozidae)

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    Bactericera cockerelli (Sulc) (Hemiptera: Triozidae) is a pest of potato (Solanum tuberosum L.) that vectors the bacterium that putatively causes zebra chip disease in potatoes, ‘Candidatus Liberibacter solanacearum.’ The economic risk of zebra chip disease is mitigated by controlling populations of B. cockerelli in commercial potato fields. Lacking an integrated pest management (IPM) strategy, growers have resorted to an intensive chemical control program that may be leading to insecticide-resistant B. cockerelli populations in south Texas and Mexico. To initiate the development of an integrated approach of controlling B. cockerelli, we used constant temperature studies and non-linear and linear modeling to determine degree day parameters for development of B. cockerelli infesting potato. We field validated the parameters by making degree day model predictions for three different B. cockerelli life stages tested against population data collected from 49 pesticide-free fields. The models estimated the lower and upper threshold for overall (egg plus nymph) development of B. cockerelli as 6.5 and 29.3°C, respectively, with a thermal constant, K, of 354.6 degree days. In the field validation, the model accurately predicted within the normal sampling frequency of 7 days 73% of the egg-to-egg peaks, 80% of the nymph-to-nymph peaks, and 58% of the peaks for the highly mobile adults. It is impractical to predict first occurrence of B. cockerelli in potato plantings as adults are present as soon cotyledons break through the soil. Therefore, we suggest integrating the degree day model into current B. cockerelli management practices using a two-phase method. Phase one occurs from potato planting through the first peak of a B. cockerelli field population and are managed using current practices. Once the B. cockerelli population peaks, phase two begins and the degree day model is initiated to predict the subsequent population peaks, thus providing growers a tool to proactively manage B. cockerelli
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