Publications by authors named "Y Ben-Shaul"

Article Synopsis
  • Many animals rely on their sense of smell to gather information about their surroundings, but the scents or molecular signatures emitted by objects can vary for several reasons.
  • This variability makes it challenging for animals to recognize objects based solely on scent, suggesting that the complex chemosensory systems they possess play a crucial role in overcoming this challenge.
  • The authors highlight the need for more comprehensive studies on olfactory object variability through chemical, behavioral, and physiological research, emphasizing that their findings are relevant not just for mammals with strong olfactory capabilities, but for all creatures that use smell to interact with their environments.
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In most mammals, conspecific chemosensory communication relies on semiochemical release within complex bodily secretions and subsequent stimulus detection by the vomeronasal organ (VNO). Urine, a rich source of ethologically relevant chemosignals, conveys detailed information about sex, social hierarchy, health, and reproductive state, which becomes accessible to a conspecific via vomeronasal sampling. So far, however, numerous aspects of social chemosignaling along the vomeronasal pathway remain unclear.

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The physiological performance of any sensory organ is determined by its anatomy and physical properties. Consequently, complex sensory structures with elaborate features have evolved to optimize stimulus detection. Understanding these structures and their physical nature forms the basis for mechanistic insights into sensory function.

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Social communication is crucial for the survival of many species. In most vertebrates, a dedicated chemosensory system, the vomeronasal system (VNS), evolved to process ethologically relevant chemosensory cues. The first central processing stage of the VNS is the accessory olfactory bulb (AOB), which sends information to downstream brain regions via AOB mitral cells (AMCs).

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We directly tested whether, when given the choice to ascend or descend, rodents would favor traveling downwards or upwards. The test incorporated different rodent species that dwell in different habitats and display different life and motor styles. Testing was performed in a three-dimensional Y-maze in which the basis was horizontal and, by rotating it, one arm of the maze could be pointing upwards at a certain angle and the other arm pointed downwards at the same angle.

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