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193 results for “Liberia”
FIGURE 9 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 9. Myiomma albostiolata sp. nov. male. A—habitus, ventrad; B—head, dorsad; C—head, frontal view; Dpronotum and scutellum; E—head, thorax laterad; F—right fore wing; G—parameres and aedeagus. Scales: A = 1 mm; B–E = 0.3 mm; F = 0.5 mm; G = 0.05 mm.
FIGURE 1 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 1. Sketch map of the study area in Bong county, Liberia, west Africa. LRU: "Liberia Research Unit".
FIGURE 4. Isometopus slateri male. A in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 4. Isometopus slateri male. A—habitus; B—head, frontal view; C—head dorsad; D—head, laterad; E—parameres; F—aedeagus; G—antenna. Scales: A = 1 mm; B–D, G = 0.5 mm; E–F = 0.1 mm.
FIGURE 3 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 3. Isometopus bongensis sp. nov. male. A—head, frontal view; B—head dorsad; C—head, thorax and antenna, laterad; D—antenna III+IV; E—habitus; F—parameres; G—aedeagus. Scales: A–D = 0.5 mm; E = 1 mm; F–G = 0.1 mm.
FIGURE 10 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 10. Myiomma brunnea sp. nov. male. A—habitus; B—head, dorsad; C—head, frontal view; D—head, thorax laterad; E—antenna I–II; F—parameres and aedeagus. Scales: A = 1 mm; B–E = 0.3 mm; F = 0.05 mm.
FIGURE 12 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 12. Myiomma fuscipes sp. nov. male. A—habitus; B—head, pronotum dorsad; C—head, frontal view; D—head, thorax laterad; E—antenna; F—parameres and aedeagus. Scales: A = 1 mm; B–E = 0.3 mm; F = 0.05 mm.
FIGURE 8 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 8. Bongiella nodistylis sp. nov. male. A—habitus; B—head, frontal view; C—head dorsad; D—head, laterad; Eantenna; F—apical part of hind femur with two long trichia; G—recessed hind femoral trichobothria, arrowed; H—parameres and aedeagus. Scales: A = 1 mm; B–E = 0.3 mm; H = 0.05 mm.
FIGURE 11. Myiomma cobbeni male. A in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 11. Myiomma cobbeni male. A—habitus, dorsad; B—head, thorax dorsad; C—head, frontal view; D—head laterad; E—habitus, ventrad; F—antenna II; G—parameres and aedeagus. Scales: A+E = 1 mm; B–D, F = 0.4 mm; G = 0.05 mm.
FIGURE 2 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 2. Vehicle-mounted "car-net", also called "elephant trap" in allusion to the long grey "trunk"-tube (Photo: R. Garms, 1986).
FIGURE 15 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 15. Myiomma variabilis sp. nov. male. A—habitus; B—head dorsad; C—head, frontal view; D—head, thorax laterad; E—antenna; F—parameres; G—aedeagus, inverted and everted. Scales: A = 1 mm; B–E = 0.3 mm; F–G = 0.05 mm.
FIGURE 14. A–C—Myiomma rubra male. A in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 14. A–C—Myiomma rubra male. A—head, antenna laterad; B—head, frontal view; C—fore wing. D–F—Myiomma rubrovenata male. D—head, antenna laterad; E—head, frontal view; F—head, thorax dorsad. Scales: A–B, D–F = 0.5 mm; C = 0.5 mm.
FIGURE 6 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 6. Paloniella garmsi sp. nov. male. A—habitus; B—head, frontal view; C—head laterad; D—head, dorsad; Eantenna; F—parameres and aedeagus. Scales: A = 1 mm; B–E = 0.5 mm; F = 0.1 mm.
FIGURE 5 in Vehicle-mounted net sampling of airborne micro-Heteroptera in western Liberia, West Africa: 1. Isometopinae (Miridae)
FIGURE 5. Paloniella erinacea sp. nov. male. A—habitus; B—head, thorax dorsad from a flat angle highlighting the pubescence and head length; C—head, frontal view; D—head, antero-dorsad; E–F—heads, laterad; G–H—antenna II; Iparameres and aedeagus. Scales: A = 1 mm; B–D, G–H = 0.5 mm; E–F = 0.3 mm; I = 0.1 mm.
FIGURE 3. Reduviidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 3. Reduviidae. A, Fusius dilutus liberiensis; B, Hediocoris sp.; C, Khafra elegans; D, Lisarda vandenplasi. Genus Microstemmatodes. E+F, habitus and paramere of M. occidentalis observed from different angles; G+H, M. atrocyanea, specimen from Cameroon (Zoologisches Museum Hamburg). Scale bars: A–D, E+G, 5 mm; F+H, 0.5 mm.
FIGURE 1. Enicocephalidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 1. Enicocephalidae. A+B, Embolorrhinus cornifrons, dorsal habitus, lateral view of head and partial thorax; C, Henschiella sp., head and pronotum; D, Hoplitocoris saegeri, head and pronotum; E, H. pauliani, head and pronotum; F, Oncylocotis angustus, head and pronotum; G, O. curculio, dorsal habitus; H, O. gillonae, head and pronotum; I, Systelloderes sp. near stuckenbergi, head and pronotum, antennal segments II–IV. Scale bars: A+G, 2mm; C, D–F, H, I, 0.5mm; for antenna I, 0.2mm.
FIGURE 2. Reduviidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 2. Reduviidae. A, Acanthaspis sulcipes; B, Ademula pauliani; C, Androclus pictus; D, Authenta quadridens; E, Cosmolestes aethiopicus; F, Ectomocoris pretiosus; G, Empicoris sp. near morstatti; Scale bars: A–F, 5mm; G, 1mm.
FIGURE 4. Reduviidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 4. Reduviidae. A, Nagusta sp. near carayoni; B, N. gracilis; C, Oncocephalus subspinosus; D, O. zumpti; E, Peirates maurus; F, Peirates sp., lateral view of pygophore, and parameres; G, Peprius nodulipes; H, Petalocheirus rubiginosus, protibia, head and thorax; I, Pisilus tipuliformis; J, Platychiria murrayi, protibia and dorsal habitus; K, P. ugandensis, protibia and dorsal habitus; L, Parapirates cachani, dorsal habitus, pygophore spine, right and left parameres in lateral views. Scale bars of habitus pictures: A–E, G, I–L, 5 mm.
FIGURE 6. Reduviidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 6. Reduviidae. A, Sirthenea africana; B, Sphedanolestes picturellus; C, Vestula lineaticeps; D, Villiersella longispinis. Scale bars: 5 mm.
FIGURE 5. Reduviidae. A in Notes on Afrotropical Enicocephalidae and Reduviidae (Hemiptera: Heteroptera) with emphasis on vehicle-mounted net samples from Liberia, West Africa
FIGURE 5. Reduviidae. A, Rhynocoris albopilosus; B+C, R. bicolor, habitus, pygophore and parameres dorsal view; D+E, Rhynocoris sp., habitus, pygophore and parameres dorsal view; F, R. carmelita; G, R. hutsebauti; H, R. nitidulus; I, R. rapax; Scale bars of habitus pictures: 5 mm.
Data from: Ebola cases and health system demand in Liberia
In 2014, a major epidemic of human Ebola virus disease emerged in West Africa, where human-to-human transmission has now been sustained for greater than 12 months. In the summer of 2014, there was great uncertainty about the answers to several key policy questions concerning the path to containment. What is the relative importance of nosocomial transmission compared with community-acquired infection? How much must hospital capacity increase to provide care for the anticipated patient burden? To which interventions will Ebola transmission be most responsive? What must be done to achieve containment? In recent years, epidemic models have been used to guide public health interventions. But, model-based policy relies on high quality causal understanding of transmission, including the availability of appropriate dynamic transmission models and reliable reporting about the sequence of case incidence for model fitting, which were lacking for this epidemic. To investigate the range of potential transmission scenarios, we developed a multi-type branching process model that incorporates key heterogeneities and time-varying parameters to reflect changing human behavior and deliberate interventions in Liberia. Ensembles of this model were evaluated at a set of parameters that were both epidemiologically plausible and capable of reproducing the observed trajectory. Results of this model suggested that epidemic outcome would depend on both hospital capacity and individual behavior. Simulations suggested that if hospital capacity was not increased, then transmission might outpace the rate of isolation and the ability to provide care for the ill, infectious, and dying. Similarly, the model suggested that containment would require individuals to adopt behaviors that increase the rates of case identification and isolation and secure burial of the deceased. As of mid-October, it was unclear that this epidemic would be contained even by 99% hospitalization at the planned hospital capacity. A new version of the model, updated to reflect information collected during October and November 2014, predicts a significantly more constrained set of possible futures. This model suggests that epidemic outcome still depends very heavily on individual behavior. Particularly, if future patient hospitalization rates return to background levels (estimated to be around 70%), then transmission is predicted to remain just below the critical point around Reff = 1. At the higher hospitalization rate of 85%, this model predicts near complete elimination in March to June, 2015.
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