Increased vascular permeability is a frequent outcome of viperid snakebite envenomation,
leading to local and systemic complications. We reported that snake venom cysteine-rich …

Increased vascular permeability is a frequent outcome of viperid snakebite envenomation,
leading to local and systemic complications. We reported that snake venom cysteine-rich …

Cysteine-Rich Secretory Proteins (CRiSPs) are typically found in many snake venoms;
however, the role that these toxins play in the pathophysiology of snakebites is still unclear …

Snake venoms contain various molecules known for activating innate immunity and causing
local effects associated with increased vascular permeability, such as vascular leakage and …

The global exploration of snakebites requires the use of quantitative omics approaches to
characterize snake venom as it enters into the systemic circulation. These omics approaches …

Around 95% of snake venom is protein. Along with the soluble proteins, snake venom also
contains proteins encapsulated in vesicles known as Snake Venom Extracellular Vesicles …

Proteins constitute almost 95% of snake venom's dry weight and are produced and released
by venom glands in a solubilized form during a snake bite. These proteins are responsible …

Snake venoms are complex cocktails of non-toxic and toxic molecules that work
synergistically for the envenoming outcome. Alongside the immediate consequences …

Cysteine-rich secretory proteins (CRISPs) are commonly described as part of the protein
content of snake venoms, nevertheless, so far, little is known about their biological targets …

A novel snake venom cysteine-rich secretory protein (svCRiSP), Hellerin, was purified from
C. o. helleri venom using sequential reverse phase and cation-exchange chromatography …