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1.
Tropical Biomedicine ; : 55-64, 2023.
Article in English | WPRIM | ID: wpr-1006536

ABSTRACT

@#Gastrointestinal parasites (GIPs) in elephants have been reported in several studies over the last decades. Nonetheless, comprehensive data on clinicopathology of elephant GIPs, parasite burden threshold value, and the effectiveness of conventional anthelmintic drugs are still lacking. Herein, we have systematically reviewed the available knowledge on elephant GIPs identified among different parts of the world based on their prevalence, epidemiology, pathology, diagnosis, treatment, and control. Two electronic databases were searched for publications that met the inclusion criteria. About19 English journal articles published between year of 2011- 2021 were included. The main GIPs reported in elephants were Cyathostomidae (at least 14 species), Ancylostomidae, Haemonchus contortus, Trichostrongylus colubriformis, Oesophagostomum columbianum, Oesophagostomum aceleatum, Ascarids, Trichurids, Strongyloides, Anophlocephalidae, flukes, and Coccidia across different parts of the world, including Malaysia, Indonesia, Thailand, Myanmar, Sri Lanka, India, Kenya, Nigeria, and South Africa. Most elephants show no clinical signs until the equilibrium between parasite and host is disturbed. The common diagnostic methods for GIPs are traditional direct smear, faecal floatation, sedimentation, and McMaster egg counting technique, all involving morphological identification. However, some articles described the use of molecular detection to characterise common GIPs of elephants. Although benzimidazoles and macrocyclic lactones group of anthelmintic are the most conventional GIPs treatment and control for captive and semi-captive elephants, there is limited data on the threshold value of faecal egg count as the baseline for treatment decision. Over the last decades, various studies regarding elephant GIPs have been conducted. However, more focused and systematic studies are required to enhance our knowledge in multiple aspects of elephant parasitology to find effective solutions and improve elephant health.

2.
Chinese Journal of Traumatology ; (6): 394-396, 2021.
Article in English | WPRIM | ID: wpr-922706

ABSTRACT

Human-elephant conflict (HEC) in India is becoming a growing health problem causing many fatalities every year. Elephants produce injuries by trampling, stomping, squeezing, tossing in the air, or crushing/targeting the head and chest commonly. The adult elephants are most aggressive in their mating season, leading to maximum incidences of HECs in this period. These attacks are mostly unprovoked, though most HECs are provoked. In this case series, the authors described the injuries sustained by three survivors in a short span of one month due to the sudden and unprovoked elephant attack. All the injuries were mild to moderate in severity and involved the chest in common. Timely rescue and prompt initiation of treatment were pivotal in their survival. The authors also want to create awareness about the mating season of elephants to minimize these unfortunate events in the future.


Subject(s)
Animals , Humans , Elephants , India , Seasons , Survivors
3.
J Genet ; 2019 Aug; 98: 1-12
Article | IMSEAR | ID: sea-215410

ABSTRACT

During the last two decades, our understanding of the genetics of African elephant populations has greatly increased. Strong evidence, both morphological and genetic, supports recognition of two African elephant species: the savanna elephant (Loxodonta africana) and the forest elephant (L. cyclotis). Among elephantids, phylogeographic patterns for mitochondrial DNA are highly incongruent with those detected using nuclear DNA markers, and this incongruence is almost certainly due to strongly male-biased geneflow in elephants. As our understanding of elephant population genetics has grown, a number of observations may be considered enigmatic or anomalous. Here, several of theseare discussed. (i) There are a number of within-species morphological differences purported to exist among elephants in different geographic regions, which would be difficult to reconcile with the low genetic differentiation among populations. (ii) Forest elephants have a higher effective population size than savanna elephants, with nuclear genetic markersmuch more diverse in the forest elephants than savanna elephants,yet this finding would need to be reconciled with thelife history of the two species. (iii) The savanna and forest elephants hybridize and produce fertile offspring, yet full genome analysis of individuals distant from the hybrid zone suggests that gene flow has been effectively sterilized for atleast ∼500,000 years. (iv) There are unexplored potentialramifications of the unusual mito–nuclear patterns among elephants. These questions are considered in light of highmale and low female dispersal in elephants, higher variance of reproductive success among males than females, and of habitat changes driven by glacial cycles and human activity

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