Sort   by:  
 Page size 
Small metabolites and peptides in 17 snake venoms (Elapidae, Viperinae, and Crotalinae), were quantified using liquid chromatography-mass spectrometry. Each venom contains >900 metabolites and peptides. Many small organic compounds are present at levels that are probably significant in prey envenoma...
2023-01-11 | MTBLS755 | MetaboLights
This study aimed at characterizing the snake venom extracellular vesicles (SVEVs).Shotgun proteomics analysis of SVEVs was performed to identify the proteome content of these vesicles. TEM, DLS, biochemical activity and cellular assays were performed to characterize the morphology and functionality ...
ORGANISM(S): Crotalus viridis Crotalus atrox Agkistrodon Crotalus cerberus 
2022-03-07 | PXD009506 | Pride
Mathematical model of the blood coagulation cascade including interaction of snake venom and antivenom.
2018-06-15 | MODEL1806150001 | BioModels
Protein expression is a major link in the genotype-phenotype relationship, and processes affecting protein abundances, such as rates of transcription and translation, could contribute to phenotypic evolution if they generate heritable variation. Recent work has suggested that mRNA abundances do not ...
ORGANISM(S): Micrurus fulvius (Eastern coral snake) (Coluber fulvius) Sistrurus miliarius barbouri (Dusky pigmy rattlesnake) (Sistrurus barbouri) Crotalus horridus (Timber rattlesnake) Crotalus adamanteus (Eastern diamondback rattlesnake) Hypsiglena jani Sistrurus catenatus (massasauga) Agkistrodon contortrix Boiga irregularis (Brown tree snake) Micrurus tener (Texas coral snake) Agkistrodon piscivorus (cottonmouth) 
2015-11-09 | PXD002837 | Pride
Genus-wide proteomics analysis of cobra (Naja) venoms. For top-down analysis, venom samples were reduced with TCEP and measured via HPLC-MS/MS (Q-Exactive) . Spectrum-Protein matching was performed with TopPic1.1 against a genus wide translated transcriptome database and NCBI protein entries from th...
ORGANISM(S): Naja (ncbitaxon:8638) 
2018-01-04 | MSV000081885 | MassIVE
The synthesis of snake venom proteins is subjected to finely regulated processes in the specialized secretory epithelium within the venom gland. Such processes occur within a defined time frame in the cell and at specific cellular locations. Thus, the determination of subcellular proteomes allows th...
ORGANISM(S): Bothrops jararaca (Jararaca) (Bothrops jajaraca) 
2023-09-30 | PXD040239 | Pride
Hydrophilic interaction liquid chromatography coupled with LC- MS/MS was used to analyze the crude venom extracts of Echis ocellatus (Carpet viper) and Bitis arietans (Puff adder). The gel-free proteomic analysis of the crude venom extracts from E. ocellatus and B. arietans yielded the identificatio...
ORGANISM(S): Echis ocellatus Bitis arietans 
2021-03-11 | PXD024638 | Pride
New treatments that circumvent the pitfalls of traditional antivenom therapies are critical to address the problem of snakebite globally. Numerous snake venom toxin inhibitors have shown promising cross-species neutralization of medically significant venom toxins in vivo and in vitro. The developmen...
ORGANISM(S): Crotalus atrox 
2024-06-22 | PXD046399 | Pride
Latest advancement of omics technologies allows in-depth characterization of venom compositions. In the present work we present a proteomic study of two snake venoms of the genus Naja i.e. Naja naja (black cobra) and Naja oxiana (brown cobra), of Pakistani origin. The present study has shown that th...
ORGANISM(S): Naja naja Naja oxiana 
2020-10-29 | PXD018726 | Pride
Metalloproteinases are abundant in viperid venoms and are implicated in several envenomation effects. Bothrops jararaca venom is reported to induce kidney injury and coagulopathy. HF3 is an extremely hemorrhagic metalloproteinase from B. jararaca venom and participates in the local pathogenesis of e...
ORGANISM(S): Mus Musculus (ncbitaxon:10090) 
2023-01-20 | MSV000091101 | MassIVE
Sort   by:  
 Page size