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Diptera: Calliphoridae) Halleres, Vol. l, No.1, 2009 Some notes on medically important flies (Diptera: Galliphoridae) from lndia Meenakshi Bharti Depaftment of Zoology, Pu niabi U niversity, Patiala'l 47002, Pu niab. (email: [email protected]. in) (www.forensicentomologyind ia. com) Abstract Many cases of myiasis are reported every year from India, but in most of these cases the correct identiflcation of fly maggots is lacking. Moreover, calllphorids and other families of Diptera like Sarcophagidae, Muscidae are vectors of number of diseases like cholera, poliomyelitis, typhoid fever, leprosy, tuberculosis etc. K6eping in view the medical importance of these flies, an attempt is made to enlist the calliphorld species from India. Keywords: Myiasis, Calliphoridae, lndia. lntroduction Myiasis is usually dealt with from the llElude those species which lay their eggs or stand point of tissues and organs invaded, and deposit their larvae in the living tissues. classified under rhinal, aural, oral, oc'ular, Facultative (Semi-specific myiasis producing cutaneous, subcutaneous, vaginal and gastro- flies): Include species which normally lay their intestinal myiasis. This method of dealing with eggs or deposit their larvae in decomposing the subject is not only unscientific but leads to animal or vegetable matter, but occasionally endless confusion, as the same larva may be place them in living tissue. found in more than one organ and in wounds Accidental myiasis producing flies: Include and cuts of all kinds. As to mention, the larvae those species which normally lay their eggs or of Chrysomya bezziana, the old world screw- larvae in shle ordecomposing vegetable mafter. worm fly may be found in allthe above named Many human food stuffs are suitable breeding cavities and in all forms of cutaneous and ground for these flies, and if these are not subcutaneous myiasis. The subject of myiasis properly protected, washed orcooked, become should be best studied from the standpoint of infected and the larvae are accidentally the flies themselves, which may be classified ingested, and are able to live in the intestines. as follows: Many cases of myiasis have also been Obligatory (Specific myiasis producing flies): reported from India (Bapat, 2000; Mahipal ef Some notes on medically imPortanttlies (DlPtda: cdliphqidaelfm at.,2002; Sehgal et a\.,2002) but in most of arrangement of spines. The twelfth segment, these cases the correct identification of the fly however, shows several features of taxonomic maggots is lacking. Long lists of names of flies interest, the most important being the posterior are given in the books of medicine, but no spiracle. In the first instar these are simple, mention is made as to howthe various larvae of kidney shaped structures, whereas in the Indian species could be identified. For this second and third instars the spiracle consist of reason very little effort is made by medical an outer heavily sclerotized ring, the peritreme, practitioner to rear the larval forms into adults. which surrounds the spiracularapertures. In the Apart from causing myiasis, the flies second instar the peritreme is incomplete at belonging to families Calliphoridae, the ventralend and there are two apertures. In Sarcophagidae and Muscidae are vectors/ the third instar the peritreme is complete and a transmitters of diseases like poliomyelitis, button is present at the ventral end, which cholera, typhoid fever, bacillary dysentery, represents the ecdysial scar of the'second instar trachoma virus, enteric infections, leprosy, spiracle (Kurahashi, 1985). Three apertures are tuberculosis, etc.(Patton, 1922i Zumpt, 1965; present in the third instar (Fig.1c). Greenberg, 197 1,1973). In addition, there are present the four foci Keeping in view the medical importance of a'sun-ray'structure;these are presumed to of these flies, an attempt is made to enlist the strengthen the spiracle. Spiracle distance factor calliphorid species. (SDF) is of utmost value in distinguishing larvae at species level. lt is calculated by dividing the Results and Discussion distance between the spiracles by the greatest Morphology of the larvae diameter of one spiracle. possesses seven Acalliphorid larva is generally identified and Last segrnent also posterior distinguished from other dipteran larvae on the pairs of papillae on its surface position P2 in basis of following characters: (numbered Pl to P7). The of taxonomic A typical cal liphoiid larva has twelve segmentsf relation to Pl and P3 is of one cephalic, three thoracic and eight abdominal value(Fig.1d). to segments (Fig.1a). Currently no identification key is The second segment bears an anterior immature stages of lndian calliphorids mentioned diagnostic spiracle on either side in second and third instar. available, so the above It is a fan shaped multi-lobed respiratory characters will help the medical practitioner to structure which represents the sclerotized distinguish the calliphorid larva from other anterior end of the large tracheal branch (Keilin, dipteran larvae. 1944). The number of lobes is of systematic use as each species posses a limited range; Notes on Indian Calliphorids for e.g. Calliphora vomitoria possesses 9-12 Chrysomya megacephala (Fabricius, 1794) lobes in the third instar where as Calliphora Musca megacephala: Fab., 1794,SYst. Ent.,4:317 vicina larvae possess 5-8 lobes(Fig. 1 b). The first and second larval segments Chrysomya megacephala: SeguY, 1928, together contain the cephalopharyngeal Encycl.Ent.,B ll Dipt.,4:1 01 1 97 7 :542. skeleton. The following nine segments showfew Ch rysomy a meg aceph a/a: James, distinguishing features other than the Type locality: Guinea 68 Halteres, Vol.l, No.1, 2q,9 Distribution : Pantropical, widespread in Oriental regions: Guam, Marshall lslands, Hawaii region: India, Nepal, Thailand, Malaysia, lslands, Indonesia, PNG Vanuatu, New I ndonesia (Java, Maluku,Timor); widespread in Caledonia, Fiji & Australia. Australian and Oceanian region. Bionomics: Bionomics: Larvae of this fly are commonly known '' This fly is a common scavenger in as 'hairy' maggots as the first and seventh lndia(Bharti & Singh,2003) and sometimes abdominal segments bearseveral pairs of finger- produces myiasis of man and domestic animals like papillae. They are predacious in nature (Bakar ef a/.,1983). Adults are generally found and attack other larvae of Calliphoridae, on garbage and are aftracted to decaying meat Sarcophagidae and Muscidae found in the same and human excrement. lt could be found at an breeding place (Kurahashiet al., 1997; Bharti elevation of up to 2200m (Senior White ef a/., & Singh, 2003). This species is known to be 1940; Kurahashi&Thapa, 1994; Sukontason ef involved in secondary myiasis. a|.,2006). Ch rysomya bezzi an a Yil leneuve, { 91 4 Chrysomya rufifacies (Macquart,l 843) Chrysomya bezziana Villeneuve, 1914: 430. Lucilia rufifacies: Macquart, 1843:303(146). Type locality:Africa Type localify: Nouvelle-Hollande [Aushalia] Chrysomya bezziana: Kurahashi, 197 1:3 Lucilia orientalis: Macquart, 1843:302(145). Chrysomya bezziana: James, 1977 : 541 Type locality: Pondicherry, lndia Distribution: India; widely distributed in the Lucilia pavonina'. Schiner, 1868:305. Type orienhl region, including NewGuinea (lrian Jaya locality: Kar Nicobar and Tellnschong & PNG) and Bismarck Arch. Somomyia barbata: Bigot, 1877:39. Type locality:lndia Elonomics: Chrysomya cordieri: Seguy, 1925:303.Type This species is commonly known as "Old parasite locality: Sockaboemi, Java fl ndonesial World screw-worm".fly. lt is an obligate Chrysomya rufifacies: Senior-White, (specific myiasis producing flies) and unlike Aubertin&Sm art, 1940:1 41 Chrysomya megacephala and Chrysomya Chrysomya albiceps rufifacies: Kurahashi, rufifacies never breeds in the dead bodies of 1971:3 animals. The larvae are commonly found in Chrysomya rufifacies: James, 1977 :542 many diseased tissues and organs of the Chrysomya rufifacies: Inder Singh, Kurahashi human body and particularly in the nose and & Kano, 1979:11 accessory sinuses. These flies generally Chrysomya rufifacies: Kurahashi & Thapa, oviposit on fresh wounds and are attracted by 1994:224 smell of blood, but never deposit its egg or larvae Dstribution: India, Nepal, Srilanka, South on the unbroken skin. Eye infestation has been China, Thailand, repo(ed by numberof scientists (Patton, 1922; Malaysia(Malaya, Borneo),Singapore, Indonesia Zumpt, 1965; Greenberg, 1971, 1973). C. (Java, Maluku), Philippines; Palaearctic region: bqzianais one of the most important producers China, Korea, Japan. Australian & Oceanian of myiasis in man and domestic animals in the Som note3 on medically importantflles (DlPtm: Calllphcldaelhonr lnda old World tropical countries (Spradbery & for transmitting bacillary dysentery, typhoid Vanniasingham, 1980; Zahedi & Jeffery 1982; fever, poliomyelitis etc. Bakar et al., 1983; Vellayan et al., 1984). Lu cil ia sert cata (Meigen, I 826) Musca sericata'. Meigen, Sitz. Beschr. V p.53, Cal I i ph o ra paftoni Au bertin,l 931 1826 Calliphora pattoni: Aubertin, 1931. Ann. Mag. Lucilia basa/is: Macquart, Mem. Soc. Royal Nat. Hist., (10)8:615 Agric. Arts, Lille, p.305, 1842 Calliphora pattoni: Tumrasvin, Kurahashi and Lucilia fl avipennis Macquart (nec. kram.), Mem. Kano, 1976, Bull. Tokyo Med. Dent. Univ.,23: Soc. Roy. Agric. Arts, Lille, P.296, 1842; id., 211 -216.Type locality: India, Darjeeling Kipt. Exot. iii, p.139, 1842 Distribution: India (West Bengal), Nepal, Musca lagyra'. Walker., List. Dipt. Brit. Mus. Thailand, Burma and Taiwan. lV p.885, 1849
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