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Neuroscience
Elektrophysiologische Aufzeichnung von Drosophila Trichoid Sensilla in Reaktion auf Odor...
Elektrophysiologische Aufzeichnung von Drosophila Trichoid Sensilla in Reaktion auf Odor...
JoVE Journal
Neuroscience
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JoVE Journal Neuroscience
Electrophysiological Recording from Drosophila Trichoid Sensilla in Response to Odorants of Low Volatility

Elektrophysiologische Aufzeichnung von Drosophila Trichoid Sensilla in Reaktion auf Odoranten der niedrigen Volatilität

Full Text
9,480 Views
07:49 min
July 27, 2017

DOI: 10.3791/56147-v

Renny Ng1, Hui-Hao Lin1, Jing W. Wang1, Chih-Ying Su1

1Division of Biological Sciences,University of California San Diego

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Overview

This article presents a protocol for delivering low-volatility odorants to Drosophila olfactory receptor neurons during single-sensillum recordings. By using this method, researchers can investigate the response of these neurons to long-chain cuticular pheromones, enhancing our understanding of insect pheromone communication.

Key Study Components

Area of Science

  • Neuroscience
  • Electrophysiology
  • Insect Behavior

Background

  • Single-sensillum recordings allow for the study of individual olfactory receptor neurons.
  • Drosophila serves as a model organism to explore pheromone detection.
  • Low-volatility odorants pose challenges for effective presentation during recordings.
  • The developed technique aims to improve odorant delivery and neuronal response assessment.

Purpose of Study

  • To establish a reliable method for presenting low-volatility odorants to Drosophila olfactory neurons.
  • To facilitate the investigation of neuronal responses to specific pheromones.
  • To enhance knowledge of insect olfaction mechanisms.

Methods Used

  • Single-sensillum recordings were conducted on Drosophila olfactory receptor neurons.
  • The protocol included detailed steps for preparing odor delivery cartridges and fly preparations.
  • Electrophysiological recordings focused on the response of neurons to different concentrations of palmitoleic acid.
  • Emphasis was placed on careful positioning of the odor cartridge relative to the fly's antenna.
  • Recordings were taken at varying distances to assess effective stimulus delivery.

Main Results

  • Consistency in cartridge positioning significantly affected neuronal response rates.
  • Effective presentation of palmitoleic acid from 4mm distance led to increased neuronal spikes, while 11mm distance resulted in minimal responses.
  • The technique demonstrated that trans-palmitoleic acid was a stronger stimulant than its cis form for Or47b neurons.

Conclusions

  • This study establishes an effective method for presenting low-volatility pheromones to olfactory neurons.
  • The findings advance the understanding of mechanisms involved in the detection of pheromones in insects.
  • By mastering this technique, researchers can explore underlying neurophysiological processes in olfaction.

Frequently Asked Questions

What is the advantage of using Drosophila for sensory studies?
Drosophila is a powerful model organism for studying olfactory systems due to its well-mapped genome and defined neuronal pathways, making it easier to understand nervous system function.
How is the odorant presentation implemented?
Odorants are delivered via specialized cartridges positioned closely to the Drosophila antenna, allowing for the effective stimulation of olfactory neurons.
What outcomes can be measured using this method?
The method allows for the measurement of neuronal responses in terms of spike rates and can highlight differences in response to various pheromone concentrations.
How can this method be adapted for other low-volatility compounds?
The cartridge preparation procedure can be modified to suit different low-volatility odorants, allowing diverse chemical studies in Drosophila olfaction.
What are key limitations to consider with this technique?
Precision in positioning the odorant cartridge is critical; inaccuracies can lead to inconsistent results in neuronal spike response, which may affect data reliability.

Das Gesamtziel dieses Protokolls ist es, zu zeigen, wie man Geruchsstoffe mit geringer Flüchtigkeit für die Single-Sensillum-Aufzeichnung von Drosophila- olfaktorischen Rezeptor-Neuronen, die auf langkettige cutikuläre Pheromone reagieren, präsentieren kann.

Das übergeordnete Ziel dieser Technik ist es, Geruchsstoffe mit geringer Flüchtigkeit effektiv für olfaktorische Rezeptorneuronen und Drosophila für die elektrophysiologische Aufzeichnung zu präsentieren. Diese Neuronen sind in den tricchoiden Sensillen untergebracht und reagieren auf langkettige kutikuläre Pheromone. Diese Methode kann dazu beitragen, Schlüsselfragen auf dem Gebiet der Pheromonkommunikation von Insekten zu beantworten, indem sie eine verbesserte Geruchsabgabetechnik bietet.

Der Hauptvorteil dieser Technik besteht darin, dass Odoriermittel, die bisher aufgrund ihrer geringen Flüchtigkeit unzugänglich waren, während der In-vivo-Aufzeichnung effektiv präsentiert werden können. Konkret werden Pheromone aus kurzer Entfernung präsentiert, die die Spanne zwischen balzenden Männchen und Zielweibchen simulieren. Die Vorbereitung der Odor Delivery Cartridge-Komponente für AT4-Aufnahmen beginnt mit der Entnahme von 0,9 Zentimetern aus dem schmalen Ende einer 200-Mikroliter-Pipettenspitze.

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