Your browser doesn't support javascript.
loading
Mostrar: 20 | 50 | 100
Resultados 1 - 3 de 3
Filtrar
Mais filtros










Base de dados
Intervalo de ano de publicação
1.
Toxins (Basel) ; 12(2)2020 01 28.
Artigo em Inglês | MEDLINE | ID: mdl-32012831

RESUMO

Slow lorises are enigmatic animal that represent the only venomous primate lineage. Their defensive secretions have received little attention. In this study we determined the full length sequence of the protein secreted by their unique brachial glands. The full length sequences displayed homology to the main allergenic protein present in cat dander. We thus compared the molecular features of the slow loris brachial gland protein and the cat dander allergen protein, showing remarkable similarities between them. Thus we postulate that allergenic proteins play a role in the slow loris defensive arsenal. These results shed light on these neglected, novel animals.


Assuntos
Alérgenos , Gatos , Alérgenos Animais/imunologia , Glicoproteínas , Lorisidae , Toxinas Biológicas , Alérgenos/química , Alérgenos/genética , Sequência de Aminoácidos , Animais , Sequência de Bases , Glicoproteínas/química , Glicoproteínas/genética , Modelos Moleculares , Homologia de Sequência de Aminoácidos , Toxinas Biológicas/química , Toxinas Biológicas/genética
2.
Ecol Evol ; 8(19): 9947-9957, 2018 Oct.
Artigo em Inglês | MEDLINE | ID: mdl-30386588

RESUMO

Improving technology and increasing affordability mean that camera trapping-the use of remotely triggered cameras to photograph wildlife-is becoming an increasingly common tool in the monitoring and conservation of wild populations. Each camera trap study generates a vast amount of data, which need to be processed and labeled before analysis. Traditionally, processing camera trap data has been performed manually by entering data into a spreadsheet. This is time-consuming, prone to human error, and data management may be inconsistent between projects, hindering collaboration. Recently, several programs have become available to facilitate and quicken data processing. Here, we review available software and assess their ability to better standardize camera trap data management and facilitate data sharing and collaboration. To identify available software for camera trap data management, we used internet searches and contacted researchers and practitioners working on large camera trap projects, as well as software developers. We tested all available programs against a range of software characteristics in addition to their ability to record a suite of important data variables extracted from images. We identified and reviewed 12 available programs for the management of camera trap data. These ranged from simple software assisting with the extraction of metadata from an image, through to comprehensive programs that facilitate data entry and analysis. Many of the programs tested were developed for use on specific studies and so do not cover all possible software or data collection requirements that different projects may have. We highlight the importance of a standardized software solution for camera trap data management. This approach would allow all possible data to be collected, enabling researchers to share data and contribute to other studies, as well as facilitating multi-project comparisons. By standardizing camera trap data collection and management in this way, future studies would be better placed to guide conservation policy on a global level.

3.
Toxins (Basel) ; 7(7): 2639-58, 2015 Jul 17.
Artigo em Inglês | MEDLINE | ID: mdl-26193318

RESUMO

Venom delivery systems (VDS) are common in the animal kingdom, but rare amongst mammals. New definitions of venom allow us to reconsider its diversity amongst mammals by reviewing the VDS of Chiroptera, Eulipotyphla, Monotremata, and Primates. All orders use modified anterior dentition as the venom delivery apparatus, except Monotremata, which possesses a crural system. The venom gland in most taxa is a modified submaxillary salivary gland. In Primates, the saliva is activated when combined with brachial gland exudate. In Monotremata, the crural spur contains the venom duct. Venom functions include feeding, intraspecific competition, anti-predator defense and parasite defense. Including mammals in discussion of venom evolution could prove vital in our understanding protein functioning in mammals and provide a new avenue for biomedical and therapeutic applications and drug discovery.


Assuntos
Evolução Biológica , Primatas/anatomia & histologia , Glândulas Salivares , Dente , Peçonhas/metabolismo , Animais , Primatas/fisiologia , Glândulas Salivares/anatomia & histologia , Glândulas Salivares/metabolismo , Dente/anatomia & histologia , Dente/metabolismo
SELEÇÃO DE REFERÊNCIAS
DETALHE DA PESQUISA
...