398 INDEX Sleeping Sickness 182 Viral Encephalitis 40–41 Yellow

Total Page:16

File Type:pdf, Size:1020Kb

398 INDEX Sleeping Sickness 182 Viral Encephalitis 40–41 Yellow 398 INDEX Index Acarina 237 sleeping sickness 182 Acerolitos 225 viral encephalitis 40–41 Aedes (see also Aedes aegypti; Aedes albopictus)7, yellow fever 34, 36–37 15–17 Anklets, repellent-treated 61–62 behaviour 17 Annual killifishes 124, 127, 160 breeding sites 137–138, 141, 152 Anopheles 7, 13–14 control measures 53, 135, 138, 357 behaviour 13–14 dengue transmission 36, 39 breeding sites 13, 159, 161 distinguishing features 12, 13 control measures 53, 107, 135, 155, 164 filariasis transmission 29, 30–31 distinguishing features 12, 13 life cycle 11, 16–17 filariasis transmission 29, 30–32 yellow fever transmission 34, 36, 37 insecticide resistance in 26 Aedes aegypti 15, 16, 17 life cycle 11, 13 breeding sites 16, 137–138 malaria transmission 26–27 control measures 39, 107, 114, 134 Anopheles balabacensis 122 dengue transmission 36, 39 Anopheles barbirostris 29, 32 yellow fever transmission 34, 36, 37 Anopheles culicifacies 13 Aedes albopictus 15, 16–17 Anopheles darlingi 161 breeding sites 17, 137–138 Anopheles maculatus 122, 158 control measures 114 Anopheles minimus 122 dengue transmission 36 Anopheles stephensi 138, 141 Aerial spraying Antimalarial drug resistance 26 blackflies 44, 45, 132 Antimony, pentavalent 49 ticks 274–275 Ants 386 tsetse flies 208 Ant traps, mosquito control 138, 139 Aerosol sprays, insecticidal 63, 69–70 Aphyosemion 124 in bedbug control 239 Aplocheilus (panchax) 124, 127, 164 in cockroach control 296–298 Arboviruses 33–41 in housefly control 319, 320–321 Argasidae (soft ticks) 263, 264–265 in mosquito control Argentine pearlfish, see Cynolebias bellotii fabric treatment 94 Arsenite, sodium 316 in tents 103 Attractants in tick control, animals 273 cockroach 299 Aleppo boil, see Leishmaniasis, cutaneous housefly 317 Allergic reactions tsetse fly 185, 195–196 to bedbugs 239 Australian cockroach, see Periplaneta australasiae to biting Diptera 17, 24 Avoidance to biting mites 277 of biting Diptera 105 to cockroaches 292 of snail-infested waters 346, 350 to fleas 245 of ticks 272 to house dust mites 282 Azamethiphos, in housefly control 317, 320, to lice 257 322 to triatomine bugs 213 Azolla, in mosquito control 123, 163 Allethrins, in mosquito coils 63, 66, 67 Alphacypermethrin 86, 362 Babies, protection of in cockroach control 297 fly nets 311, 312 in housefly control 320 mosquito nets 78 in tsetse fly control 203 Bacillus sphaericus 131, 137 Amblyomma americanum 271 in pit latrines 150–152 Amblyomma hebraeum 266 Bacillus thuringiensis H-14 American cockroach, see Periplaneta americana in blackfly control 45, 136–137 Anaemia 213, 239 in drinking-water 147 Animal reservoirs in irrigated fields 164 Chagas disease 213–214, 215 in mosquito control 131, 136–137 leishmaniasis 47, 48, 51 in ponds 160 Lyme disease 270, 275 Bacterial larvicides (see also Bacillus sphaericus; schistosomiasis 348 Bacillus thuringiensis H-14) 123, 131, INDEX 399 136–137 mansonellosis transmission 51–52 Bahia ulcer, see Leishmaniasis, cutaneous onchocerciasis transmission 41–43, 44 Bait(s) Blatta orientalis 288, 289, 294 boxes, rats 250, 251 Blattella germanica 288, 289, 290, 294, 300 cockroach 299–300 Blowflies 148, 302 housefly 316–318 Borrelia 268 dry scatter 318 Borrelia burgdorferi 269 liquid dispensers 318 Borrelia recurrentis 258 liquid sprinkle 318 Borrow-pits viscous paint-on 317, 318 filling/drainage 160, 352 Bancroftian filariasis, see Filariasis, lymphatic, mosquito larva control 160 bancroftian Boxes Bands, repellent-treated 61–62 bait, for rats 250, 251 Bar, repellent 58 surveillance, in triatomine bug control Bathing places, placement of tsetse traps/ 233–234, 235 screens 191–192 Breeding sites Bed(s) blackflies 17–18, 45 camp, with mosquito net cover 79 freshwater snails 338, 352 curtains, insecticide-treated 84–85 houseflies 304–305, 308–310, 321–323 mosquito nets, see Mosquito nets mosquitos, see Mosquito breeding sites protection from ticks 272 Briquettes, insecticidal 132 Bedbugs 237–243 Bromophos, in housefly control 320, 323 biology 237–238 Brown-banded cockroach, see Supella control measures 239–243, 357, 388 longipalpa detection 239 Brugia malayi 29, 31–32 dispersal 238 Brugia timori 29, 32 insecticide resistance in 109, 241, 242 Building blocks, pressed stabilized soil 226– public health importance 239 228 Bedding, insecticide-treated Buildings (see also Houses; Shelters), residual in bedbug control 241 insecticide spraying 381 in biting Diptera control 60–61 Bulinus 337–338, 339, 352 in flea control 248–249 Buzzers, electronic 71 Bendiocarb 362, 366 in bedbug control 242 Campers in cockroach control 297 camp bed with mosquito net cover 79 in flea control 249 protection measures for 103–104 in housefly control 317 Capture bags, tsetse traps 196 in tick control 274 Carbamates (see also Bendiocarb; Benzene hexachloride (BHC), in triatomine Propoxur) 360, 362, 365–366 bug control 218 in housefly control 316, 317, 318 Benznidazole, in Chagas disease 215 as mosquito larvicides 130 Benzyl benzoate Carbaryl in house dust mite control 283 in bedbug control 242 in scabies mite control 282 in louse control 260 Betacyfluthrin, in cockroach control 297 in tick control 274 Biconical tsetse trap 186–187 Card agglutination test for trypanosomiasis Bilharziasis, see Schistosomiasis (CATT) 185 Bioallethrin Carp in louse control 260 common, see Cyprinus carpio in mosquito/biting Diptera control 67, 71 grass, see Ctenopharyngodon idella Bioassay cone method, see Residual tooth, see Aplocheilus panchax; Gambusia insecticides, efficacy testing affinis; Poecilia reticulata Biological control Catfish, Chinese 147 freshwater snails 352, 353 Cats mosquitos 122–127, 136–137 fleas 243–244, 245, 246, 247–248 Biomphalaria 337–338, 339, 352 tapeworms 246 Bioresmethrin, in housefly control 322 Ceilings Bithionol, in fascioliasis 350 in mosquito control 99 Blackflies 7, 17–20 mosquito nets 74 behaviour 18, 20 Cement roofing sheets, fibre-reinforced 225 breeding sites 17, 19, 45 Central European tick-borne encephalitis 271 control measures 53 Cercariae 340, 343 personal protection 59, 60 Cesspools, housefly control 310 prevention of breeding 44, 45, 132, Chagas disease 210, 213–216 136–137 clinical symptoms 214–215 distinguishing features 8–9 prevention and control 215–216, 357, 381 life cycle 17–18 transmission 213–214 400 INDEX Chiclero’s ulcer, see Leishmaniasis, cutaneous tsetse traps/screens 185 Chiggers 276, 277 Comb, louse 259 Chigoes, see Jigger fleas Community Chikungunya virus disease 41 approach, house-spraying 358 Chinese catfish 147 disease control in 52, 53 Chitin synthesis inhibitors 135 education 382 Chlorfenvinphos, in housefly control 320 health workers 358 Chlorpyrifos insecticide delivery to 205 in cockroach control 297 protection as mosquito larvicide 131, 134 by mosquito nets 82 in tick control 274 from ticks 274–275 Cholera 292, 307 by tsetse traps 186 Cholinesterase, blood 392 triatomine bug surveillance 232 Chrysomyia, see Blowflies Compression sprayers, see Hand-compression Chrysops, see Deerflies sprayers Cichlid fish, see Oreochromis mossambicus Conjunctivitis, epidemic 307 Cimex hemipterus 237 Constant-head dispenser 355 Cimex lectularius 237 Construction blocks, pressed stabilized Citronella, in mosquito/biting Diptera soil 226–228 control 56, 57 Construction materials 140, 226–228 Clarias fuscus 147 Cotton Cleaning cloth hand-compression sprayers 378–379 insecticide impregnation 87 used pesticide containers 388 for water filtration 334 Cleanliness, see Hygiene netting Clegs 23 insecticide impregnation 87 Clonorchis sinensis 348 for mosquito nets/screens 73, 100 Cloth, see Fabrics/cloth Coumaphos, in tick control 274 Clothing Coxiella burnetii 268–269 body lice in 255, 262 Creeks, see Streams/creeks insecticide/repellent-treated 59–63 Crimean–Congo haemorrhagic fever 271, 272 in biting mite control 278 Ctenocephalides canis, see Fleas, dog choice of chemical 60 Ctenocephalides felis, see Fleas, cat in louse control 262 Ctenopharyngodon idella 125, 164, 352 method of treatment 60 Culex 7, 14–15 in tick control 272 behaviour 15 types 60–63 breeding sites 15, 148, 152, 153, 161 protective 389–391 control measures 33, 53 in biting insect control 59–63 insecticide spraying 107, 357 for insecticide impregnation of larval control 135, 137, 155 fabrics 391 distinguishing features 12, 13 for insecticide spraying 377, 378, 383, life cycle 11, 15 389–390 Culex gelidus 148 maintenance 391 Culex quinquefasciatus 15 for mixing insecticides 390–391 breeding sites 15, 148 in tick control 272 control measures 33, 107 removal of contaminated 395, 396 filariasis transmission 29, 30, 31 Clou de Biskra, see Leishmaniasis, cutaneous Culex tritaeniorhynchus Cockroaches 288–300 breeding sites 15, 161 behaviour 290–291 viral encephalitis transmission 40–41 biology 288–291 Culicoides 21, 51–52 control measures 292–300 Culverts 116–117 chemical 293–300, 357, 386 Curtains environmental management 293 anti-fly 311, 312 dispersal 291 bed, insecticide-treated 84–85 life cycle 288–290 insecticide-treated 100–102 public health importance 291–292 Cyclopoid copepods 123 Coils, mosquito 63–66 Cyclops 324–336 for campers 103 biology 324, 325 holders 65, 66 control measures 332–336 method of making 66 life cycle 326, 327 near hammocks 72 public health importance 324–332 use 64–65 Cyfluthrin 362 Colorado tick fever 271, 272 in bedbug control 242 Colour in cockroach control 297 mosquito nets 74 in flea control 249 INDEX 401 in housefly control 320, 322 in flea control 249 in mosquito control in housefly control 315, 317, 322, 323 clothing treated with 60 in jigger infections 252–253 net/fabric
Recommended publications
  • Detection of Leishmania Aethiopica in Paraffin-Embedded Skin Biopsies Using the Polymerase Chain Reaction T
    ZOBODAT - www.zobodat.at Zoologisch-Botanische Datenbank/Zoological-Botanical Database Digitale Literatur/Digital Literature Zeitschrift/Journal: Mitteilungen der Österreichischen Gesellschaft für Tropenmedizin und Parasitologie Jahr/Year: 1994 Band/Volume: 16 Autor(en)/Author(s): Laskay T., Miko T. L., Teferedegn H., Negesse Y., Rodgers M. R., Solbach W., Röllinghoff M., Frommel D. Artikel/Article: Onchozerkose-Kontrolle in Mali - Darstellung eines Kommunikationsdefizites und seine Entwicklung. 141-146 ©Österr. Ges. f. Tropenmedizin u. Parasitologie, download unter www.biologiezentrum.at Mitt. Österr. Ges. Armauer Hansen Research Institute (AHRI), Addis Ababa, Ethiopia (Director: Dr. D. Frommel) (1) Tropenmed. Parasitol. 16 (1994) All Africa Leprosy Rehabilitation and Training Center (ALERT), Addis Ababa, Ethiopia 141 - 146 (Managing Director: Mr. J. N. Alldred) (2) Department of Tropical Public Health, Harvard School of Public Health, Boston, MA (Head of Unit: Dr. Dyann Wirth) (3) Institute for Clinical Microbiology, Univerity of Erlangen-Nürnberg, Erlangen, F. R. G. (Director: Prof. Dr. M. Röllinghoff) (4) Detection of Leishmania aethiopica in paraffin-embedded skin biopsies using the polymerase chain reaction T. Laskay14, T. L. Miko1-2, H. Teferedegn1, Y. Negesse12, M. R. Rodgers3, W. Solbach4, M. Röllinghoff4, D. Frommel1 Introduction Cutaneous leishmaniasis (CL) is a serious public health problem in several areas of the world. Current reports indicate that the prevalence of the disease is increasing in many countries (4). One major focus of CL in the Old World is found in Ethiopia where the aetiological agent is Leishmania aethiopica (1, 2, 7). At present diagnosis relies on the detection of the parasite in smears or skin biopsy specimens by histopathological examination and/or by in vitro culture.
    [Show full text]
  • First Case of Furuncular Myiasis Due to Cordylobia Anthropophaga in A
    braz j infect dis 2 0 1 8;2 2(1):70–73 The Brazilian Journal of INFECTIOUS DISEASES www.elsevi er.com/locate/bjid Case report First case of Furuncular Myiasis due to Cordylobia anthropophaga in a Latin American resident returning from Central African Republic a b a c a,∗ Jóse A. Suárez , Argentina Ying , Luis A. Orillac , Israel Cedeno˜ , Néstor Sosa a Gorgas Memorial Institute, City of Panama, Panama b Universidad de Panama, Departamento de Parasitología, City of Panama, Panama c Ministry of Health of Panama, International Health Regulations, Epidemiological Surveillance Points of Entry, City of Panama, Panama a r t i c l e i n f o a b s t r a c t 1 Article history: Myiasis is a temporary infection of the skin or other organs with fly larvae. The lar- Received 7 November 2017 vae develop into boil-like lesions. Creeping sensations and pain are usually described by Accepted 22 December 2017 patients. Following the maturation of the larvae, spontaneous exiting and healing is expe- Available online 2 February 2018 rienced. Herein we present a case of a traveler returning from Central African Republic. She does not recall insect bites. She never took off her clothing for recreational bathing, nor did Keywords: she visit any rural areas. The lesions appeared on unexposed skin. The specific diagnosis was performed by morphologic characterization of the larvae, resulting in Cordylobia anthro- Cordylobia anthropophaga Furuncular myiasis pophaga, the dominant form of myiasis in Africa. To our knowledge, this is the first reported Tumbu-fly case of C.
    [Show full text]
  • Artrópodos Como Agentes De Enfermedad
    DEPARTAMENTO DE PARASITOLOGIA Y MICOLOGIA INVERTEBRADOS, CELOMADOS, CON SEGMENTACIÓN EXTERNA, PATAS Y APÉNDICES ARTICULADOS EXOESQUELETO QUITINOSO TUBO DIGESTIVO COMPLETO, APARATO CIRCULATORIO Y EXCRETOR ABIERTO. RESPIRACIÓN TRAQUEAL EL TIPO INTEGRA LAS CLASES DE IMPORTANCIA MÉDICA COMO AGENTES: ARACHNIDA, INSECTA CHILOPODA DIOCOS, CON FRECUENTE DIMORFISMO SEXUAL CICLOS EVOLUTIVOS DE VARIABLE COMPLEJIDAD (HUEVOS, LARVAS, NINFAS, ADULTOS). INSECTA. CARACTERES GENERALES. LA CLASE INTEGRA CON IMPORTANCIA MEDICA COMO AGENTES: PARÁSITOS, MICROPREDADORES E INOCULADORES DE PONZOÑA. CUERPO DIVIDIDO EN CABEZA, TÓRAX Y ABDOMEN APARATO BUCAL DE DIFERENTE TIPO. RESPIRACIÓN TRAQUEAL TRES PARES DE PATAS PRESENCIA DE ALAS Y ANTENAS METAMORFOSIS DE COMPLEJIDAD VARIABLE ARACHNIDA. CARACTERES GENERALES. LA CLASE INTEGRA CON IMPORTANCIA MEDICA COMO AGENTES ARAÑAS, ESCORPIONES, GARRAPATAS Y ÁCAROS. CUERPO DIVIDIDO EN CEFALOTÓRAX Y ABDOMEN. DIFERENTES TIPOS DE APÉNDICES PREORALES RESPIRACIÓN TRAQUEAL EN LA MAYORÍA CUATRO PARES DE PATAS PRESENCIA DE GLÁNDULA VENENOSAS EN MUCHOS. SIN ALAS Y SIN ANTENAS AGENTE CAUSA O ETIOLOGÍA DIRECTA DE UNA AFECCIÓN. ARTRÓPODOS COMO AGENTES DE ENFERMEDAD: *ARÁCNIDOS (ÁCAROS, ARAÑAS, ESCORPIONES) *MIRIÁPODOS (CIEMPIÉS, ESCOLOPENDRAS) *INSECTOS (PIOJOS, LARVAS DE MOSCAS, ABEJAS, ETC.) TIPOS DE AGENTES NOSOLÓGICOS : - PARÁSITOS (LARVAS O ADULTOS) - MICROPREDADORES - PONZOÑOSOS - ALERGENOS DESARROLLO DE PARASITISMO: - ECTOPARÁSITOS - MIASIS INOCULACIÓN O CONTAMINACIÓN CON PONZOÑAS (TÓXICOS ELABORADOS POR SERES VIVOS).
    [Show full text]
  • Human Botfly (Dermatobia Hominis)
    CLOSE ENCOUNTERS WITH THE ENVIRONMENT What’s Eating You? Human Botfly (Dermatobia hominis) Maryann Mikhail, MD; Barry L. Smith, MD Case Report A 12-year-old boy presented to dermatology with boils that had not responded to antibiotic therapy. The boy had been vacationing in Belize with his family and upon return noted 2 boils on his back. His pediatrician prescribed a 1-week course of cephalexin 250 mg 4 times daily. One lesion resolved while the second grew larger and was associated with stinging pain. The patient then went to the emergency depart- ment and was given a 1-week course of dicloxacil- lin 250 mg 4 times daily. Nevertheless, the lesion persisted, prompting the patient to return to the Figure 1. Clinical presentation of a round, nontender, emergency department, at which time the dermatol- 1.0-cm, erythematous furuncular lesion with an overlying ogy service was consulted. On physical examination, 0.5-cm, yellow-red, gelatinous cap with a central pore. there was a round, nontender, 1.0-cm, erythema- tous nodule with an overlying 0.5-cm, yellow-red, gelatinous cap with a central pore (Figure 1). The patient was afebrile and had no detectable lymphad- enopathy. Management consisted of injection of lidocaine with epinephrine around and into the base of the lesion for anesthesia, followed by insertion of a 4-mm tissue punch and gentle withdrawal of a botfly (Dermatobia hominis) larva with forceps through the defect it created (Figure 2). The area was then irri- gated and bandaged without suturing and the larva was sent for histopathologic evaluation (Figure 3).
    [Show full text]
  • El Parasitismo En Cunicultura (1)
    EL PARASITISMO EN CUNICULTURA (1) por el Dr. José-Oriol Rovellat Se conoce por parásito a todo organismo viviente, que alojado en otro ser vivo, realiza a expensas de éste, todas sus funciones vitales, ocasionándole algún perjuicio. AI organismo que vive a expensas del otro se le Ilama PARASITO y al que le da cobijo HOSPEDADOR. Según su localización en el organismo animal los parásitos se dividen en ectoparásitos, cuando viven sobre la superficie externa del cuerpo del hospedador o en cavidades que comunican con el exterior; los endoparásitos son los parásitos que viven dentro del cuerpo de los hospedadores, localizándose en el tubo digestivo, pulmones, hígado, otras vísceras, células, tejidos y cavidades corporales. Según el tiempo que habitan en el organismo del hospedador, se dividen en dos grandes grupos: los parásitos temporales que sólo buscan al hospedador para alimentarse y luego lo abandonan, y los parásitos estacionarios que permanecen dentro del cuerpo del hospedador un tiempo definido de su desarrollo o bien de una manera permanente. Dentro de los parásitos estacionarios, según pasen más o menos tiempo en el organismo del hospedador se subdividen en: Parásitos Periódicos que permanecen una parte de su vida en el hospe- dador y luego lo abandonan para continuar un tipo de vida no parasitaria. Los Parásitos Permanentes pasan toda su vida en el organismo del hospedador. Los parásitos accidentales son los que ocasional- mente aparecen en hospedadores anormales en condiciones normales. Los Parásitos erráticos o abe- rrantes son los que emigran a unos órganos que no son atacados normalmente dentro del organismo del hospedador.
    [Show full text]
  • Experimental Infection of Dogs with Toscana Virus and Sandfly
    microorganisms Article Experimental Infection of Dogs with Toscana Virus and Sandfly Fever Sicilian Virus to Determine Their Potential as Possible Vertebrate Hosts Clara Muñoz 1, Nazli Ayhan 2,3 , Maria Ortuño 1, Juana Ortiz 1, Ernest A. Gould 2, Carla Maia 4, Eduardo Berriatua 1 and Remi N. Charrel 2,* 1 Departamento de Sanidad Animal, Facultad de Veterinaria, Campus de Excelencia Internacional Regional “Campus Mare Nostrum”, Universidad de Murcia, 30100 Murcia, Spain; [email protected] (C.M.); [email protected] (M.O.); [email protected] (J.O.); [email protected] (E.B.) 2 Unite des Virus Emergents (UVE: Aix Marseille Univ, IRD 190, INSERM U1207, IHU Mediterranee Infection), 13005 Marseille, France; [email protected] (N.A.); [email protected] (E.A.G.) 3 EA7310, Laboratoire de Virologie, Université de Corse-Inserm, 20250 Corte, France 4 Global Health and Tropical Medicine, GHMT, Instituto de Higiene e Medicina Tropical, IHMT, Universidade Nova de Lisboa, UNL, Rua da Junqueira, 100, 1349-008 Lisboa, Portugal; [email protected] * Correspondence: [email protected] Received: 2 April 2020; Accepted: 19 April 2020; Published: 20 April 2020 Abstract: The sandfly-borne Toscana phlebovirus (TOSV), a close relative of the sandfly fever Sicilian phlebovirus (SFSV), is one of the most common causes of acute meningitis or meningoencephalitis in humans in the Mediterranean Basin. However, most of human phlebovirus infections in endemic areas either are asymptomatic or cause mild influenza-like illness. To date, a vertebrate reservoir for sandfly-borne phleboviruses has not been identified. Dogs are a prime target for blood-feeding phlebotomines and are the primary reservoir of human sandfly-borne Leishmania infantum.
    [Show full text]
  • Molecular Characterization of Leishmania RNA Virus 2 in Leishmania Major from Uzbekistan
    G C A T T A C G G C A T genes Article Molecular Characterization of Leishmania RNA virus 2 in Leishmania major from Uzbekistan 1, 2,3, 1,4 2 Yuliya Kleschenko y, Danyil Grybchuk y, Nadezhda S. Matveeva , Diego H. Macedo , Evgeny N. Ponirovsky 1, Alexander N. Lukashev 1 and Vyacheslav Yurchenko 1,2,* 1 Martsinovsky Institute of Medical Parasitology, Tropical and Vector Borne Diseases, Sechenov University, 119435 Moscow, Russia; [email protected] (Y.K.); [email protected] (N.S.M.); [email protected] (E.N.P.); [email protected] (A.N.L.) 2 Life Sciences Research Centre, Faculty of Science, University of Ostrava, 71000 Ostrava, Czech Republic; [email protected] (D.G.); [email protected] (D.H.M.) 3 CEITEC—Central European Institute of Technology, Masaryk University, 62500 Brno, Czech Republic 4 Department of Molecular Biology, Faculty of Biology, Moscow State University, 119991 Moscow, Russia * Correspondence: [email protected]; Tel.: +420-597092326 These authors contributed equally to this work. y Received: 19 September 2019; Accepted: 18 October 2019; Published: 21 October 2019 Abstract: Here we report sequence and phylogenetic analysis of two new isolates of Leishmania RNA virus 2 (LRV2) found in Leishmania major isolated from human patients with cutaneous leishmaniasis in south Uzbekistan. These new virus-infected flagellates were isolated in the same region of Uzbekistan and the viral sequences differed by only nineteen SNPs, all except one being silent mutations. Therefore, we concluded that they belong to a single LRV2 species. New viruses are closely related to the LRV2-Lmj-ASKH documented in Turkmenistan in 1995, which is congruent with their shared host (L.
    [Show full text]
  • A Review on Biology, Epidemiology And
    iolog ter y & c P a a B r f a o s i l Journal of Bacteriology and t o Dawit et al., J Bacteriol Parasitol 2013, 4:2 a l n o r g u DOI: 10.4172/2155-9597.1000166 y o J Parasitology ISSN: 2155-9597 Research Article Open Access A Review on Biology, Epidemiology and Public Health Significance of Leishmaniasis Dawit G1, Girma Z1 and Simenew K1,2* 1College of Veterinary Medicine and Agriculture, Addis Ababa University, Debre Zeit, Ethiopia 2College of Agricultural Sciences, Dilla University, Dilla, Ethiopia Abstract Leishmaniasis is a major vector-borne disease caused by obligate intramacrophage protozoa of the genus Leishmania, and transmitted by the bite of phlebotomine female sand flies of the genera Phlebotomus and Lutzomyia, in the old and new worlds, respectively. Among 20 well-recognized Leishmania species known to infect humans, 18 have zoonotic nature, which include agents of visceral, cutaneous, and mucocutaneous forms of the disease, in both the old and new worlds. Currently, leishmaniasis show a wider geographic distribution and increased global incidence. Environmental, demographic and human behaviors contribute to the changing landscape for zoonotic cutaneous and visceral leishmaniasis. The primary reservoir hosts of Leishmania are sylvatic mammals such as forest rodents, hyraxes and wild canids, and dogs are the most important species among domesticated animals in the epidemiology of this disease. These parasites have two basic life cycle stages: one extracellular stage within the invertebrate host (phlebotomine sand fly), and one intracellular stage within a vertebrate host. Co-infection with HIV intensifies the burden of visceral and cutaneous leishmaniasis by causing severe forms and more difficult to manage.
    [Show full text]
  • Electronic Case Report Form (Ecrf)
    BMJ Publishing Group Limited (BMJ) disclaims all liability and responsibility arising from any reliance Supplemental material placed on this supplemental material which has been supplied by the author(s) BMJ Open Supplementary Material 3 Electronic case report form (eCRF) Study: Validation and optimization of the utility of routine data for improving the quality of sepsis management in hospitals (Validierung und Optimierung der Nutzbarkeit von Routinedaten zur Qualitätsverbesserung des Sepsis-Managements im Krankenhaus) Study acronym: OPTIMISE Case-ID: |_________________________________| Explanations: - italic text: Gives explanation, is not presented in the eCRF - blue text: multiple answers possible - italic red text: condition for presentation of item or query rule 1 Schwarzkopf D, et al. BMJ Open 2020; 10:e035763. doi: 10.1136/bmjopen-2019-035763 BMJ Publishing Group Limited (BMJ) disclaims all liability and responsibility arising from any reliance Supplemental material placed on this supplemental material which has been supplied by the author(s) BMJ Open Supplementary Material 3 A. Identification of patients with sepsis 1000 random cases per study centre need to be documented by trained study physicians 0. Admission and discharge dates a. Where several stays 0 no merged to one case for billing 1 yes reasons? If a = yes, ____ how many stays/cases have Query rule: N >= 2 been merged? b. Admission and discharge Admission date: |__|__|____ Discharge date: |__|__|____ dates Admission date: |__|__|____ Discharge date: |__|__|____ Admission date: |__|__|____ Discharge date: |__|__|____ Admission date: |__|__|____ Discharge date: |__|__|____ Query rule: discharge date after admission date c.
    [Show full text]
  • INFECTIOUS DISEASES of ETHIOPIA Infectious Diseases of Ethiopia - 2011 Edition
    INFECTIOUS DISEASES OF ETHIOPIA Infectious Diseases of Ethiopia - 2011 edition Infectious Diseases of Ethiopia - 2011 edition Stephen Berger, MD Copyright © 2011 by GIDEON Informatics, Inc. All rights reserved. Published by GIDEON Informatics, Inc, Los Angeles, California, USA. www.gideononline.com Cover design by GIDEON Informatics, Inc No part of this book may be reproduced or transmitted in any form or by any means without written permission from the publisher. Contact GIDEON Informatics at [email protected]. ISBN-13: 978-1-61755-068-3 ISBN-10: 1-61755-068-X Visit http://www.gideononline.com/ebooks/ for the up to date list of GIDEON ebooks. DISCLAIMER: Publisher assumes no liability to patients with respect to the actions of physicians, health care facilities and other users, and is not responsible for any injury, death or damage resulting from the use, misuse or interpretation of information obtained through this book. Therapeutic options listed are limited to published studies and reviews. Therapy should not be undertaken without a thorough assessment of the indications, contraindications and side effects of any prospective drug or intervention. Furthermore, the data for the book are largely derived from incidence and prevalence statistics whose accuracy will vary widely for individual diseases and countries. Changes in endemicity, incidence, and drugs of choice may occur. The list of drugs, infectious diseases and even country names will vary with time. Scope of Content: Disease designations may reflect a specific pathogen (ie, Adenovirus infection), generic pathology (Pneumonia – bacterial) or etiologic grouping(Coltiviruses – Old world). Such classification reflects the clinical approach to disease allocation in the Infectious Diseases Module of the GIDEON web application.
    [Show full text]
  • Sandfly Fever
    & My gy co lo lo ro g i y V Tufan and Tasyaran, Virol Mycol 2013, 2:1 Virology & Mycology DOI: 10.4172/2161-0517.1000109 ISSN: 2161-0517 Short Communication Open Access Sandfly Fever: A Mini Review Zeliha Kocak Tufan*, Mehmet A Tasyaran and Tumer Guven Faculty of Medicine, Department of Infectious Diseases and Clinical Microbiology, Ataturk Training and Research Hospital, Yildirim Beyazit University, Ankara, Turkey Introduction TOSV differs from others with its neurotropism and being an etiologic agent of central nervous system infection [24]. Although Sandfly fever, also known as Pappataci fever or phlebotomus fever the SFSV usually causes a self limited benign disease, there are some is an interesting disease mimicking other conditions which causes evidences that SFTV may lead to more severe disease, prolonged fever fever, myalgia and malaise along with abnormalities in liver enzymes and laboratory abnormalities even with neurological involvement and hematological test results [1]. Without suspicion of the disease [1,25]. itself or a presence of an epidemic, it is very hard to diagnose this disease in a non-endemic area, particularly if it is travel associated and The Mediterranean basin is the main area for sandfly fever. Reports if the anamnesis is not clear [1-5]. The differential diagnosis consists are increasingly published every day related with the presence of the of a very board spectrum list of diseases such as viral, parasitic and vector, the virus or the infection itself, from Spain to Croatia, from bacterial infections. Even hematologic malignancies and bone marrow Morocco to Iran, Italy, Portugal and Turkey [7-13,26,27].
    [Show full text]
  • Dermatobia Hominis Infestation Misdiagnosed As Abscesses in a Traveler to Spain
    Acta Dermatovenerol Croat 2018;26(3):267-269 LETTER TO THE EDITOR Dermatobia Hominis Infestation Misdiagnosed as Abscesses in a Traveler to Spain Dear Editor, A 29-year-old woman presented with abscesses tral ring was noted. Ultrasonography identified oval, on her buttock and leg attributed to flea bites inflict- hypoechoic, and hypovascular structures with inner ed 5 days earlier on return to Spain after 2 months echoic lines corresponding to cavities with debris in Guinea-Bissau. Ciprofloxacin was ineffective after and/or larval remains. Larvae were extracted before 7 days, and she was referred for dermatologic evalu- ultrasonography (Figure 1, b). ation. Examination revealed 4 round, indurated, ery- Recommended treatment included topical anti- thematous-violet furunculoid lesions with a 1.5-2 mm septic, occlusion of the infected area with paraffin, central orifice draining serous material. She reported and 1% topical ivermectin; treatment resulted in in- seeing larvae exiting a lesion, and we extracted sever- complete resolution after 7 days. al more (Figure 1). Parasitology identifiedDermatobia Furunculoid myiasis is more common in develop- (D.) hominis (Figure 2). ing countries (1). Cases in Spain are usually imported, Biopsy revealed intense dermal eosinophilic in- since the flies that produce this type of myiasis are not flammatory infiltrate with a deep cystic appearance, found locally. The species most frequently involved surrounded by acute inflammatory infiltrate and are D. hominis from Central and South America (bot- necrotic material. Dermoscopy identified a foramen fly) and Cordylobia anthropophaga from the sub-Sa- surrounded by dilated blood vessels and desquama- haran region (tumbu fly) (2). We believe this was the tion.
    [Show full text]