Volatile Pheromone
Volatile Pheromone - Related Videos
06:49
Volatile Sex Pheromone Extraction and Chemoattraction Assay in Caenorhabditis elegans
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Cited by 1 •
2024
This protocol establishes methods for extracting and quantifying responses to the volatile sex pheromone in C. elegans, providing tools to study chemical communication and navigation trajectory.
07:49
Electrophysiological Recording from Drosophila Trichoid Sensilla in Response to Odorants of Low Volatility
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Cited by 16 •
2017
The overall goal of this protocol is to demonstrate how to present odorants of low volatility for single-sensillum recording from Drosophila olfactory receptor neurons that respond to long-chain cuticular pheromones.
09:31
Imaging Pheromone Sensing in a Mouse Vomeronasal Acute Tissue Slice Preparation
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Cited by 15 •
2011
In mice, the ability to detect pheromones is principally mediated by the vomeronasal organ (VNO). Here, an acute tissue slice preparation of VNO for performing calcium imaging is described. This physiological approach allows observations of subpopulations and/or individual neurons in a living tissue and is convenient for receptor-ligand identification.
01:10
Volatilization
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2024
Volatilization gravimetry is an analytical technique that measures the mass lost due to the volatilization of the substance. This technique is used to estimate the amount of volatile material in a sample. To perform this method, heat a known amount of the sample to a high temperature in a crucible or other suitable vessel. The volatile substance in the sample evaporates, and the vapor is completely expelled from the crucible either by heating the sample or bubbling a stream of inert gas through...
11:02
Fruit Volatile Analysis Using an Electronic Nose
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Cited by 10 •
2012
A rapid method for volatile compound analysis in fruit is described. The volatile compounds present in the headspace of a homogenate of the sample are rapidly separated and detected with ultra-fast gas chromatography (GC) coupled with a surface acoustic wave (SAW) sensor. A procedure for data handling and analysis is also discussed.
FAQs
Detection begins when airborne molecules reach olfactory receptors, which recognize chemical information and convert it into neural signals. Those signals are then associated with species-specific behavioral or physiological responses. This pathway links the physical movement of a compound through air with outcomes such as attraction, alarm signaling, territorial interaction, or social communication.
Release conditions influence whether a compound evaporates readily, travels through the air, and reaches another individual. Consequently, researchers examine these conditions alongside chemical composition rather than treating the signal as independent of its surroundings. Understanding this relationship helps explain why the same type of chemical communication may produce different behavioral outcomes in different circumstances.
A response depends not only on the presence of an airborne compound but also on how the receiving organism’s sensory system interprets it. Olfactory receptors convert the chemical information into neural signals linked to species-specific responses. This selectivity helps behavioral research connect a pheromone’s chemistry and sensory pathway with communication among members of the same species.
Studies can focus on three connected features: chemical composition, release conditions, and sensory pathways. Chemical analysis identifies the signal’s composition, release studies consider how it enters and moves through the air, and sensory research examines how olfactory receptors convert it into neural information. Together, these dimensions connect the signal’s physical properties with observed behavior or physiology.
Researchers relate specific airborne chemical signals to the behavioral contexts in which they operate. In mate attraction, the signal can help explain partner location; in alarm signaling, it can clarify threat-related communication; and in territorial interactions, it can illuminate how individuals influence one another. Comparing these contexts shows how chemical communication contributes to different behavioral outcomes.
These signals provide a way to study how organisms locate partners, avoid threats, and coordinate social behavior. That behavioral information supports ecological research on interactions among individuals and evolutionary research on communication systems. The same knowledge also informs pest-management research by identifying how chemical signaling influences behavior, without reducing the topic to sensory mechanisms alone.