Mouse Startle Response Testing System

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GBR-MSR
Non-invasive, research and clinical applications, four channel

PRODUCT PARAMETER

 

Test table sensitivity: <0.1g
High frequency speaker: 3kHz-50kHz
Pure tone distortion: <-40dB
Power stability: ±0.1dB
Supports Pre-Pulse Suppression (PPI)
The signal generation module can generate a 24 bit16777216 voltage signal to drive the high-fidelity horn
Soundproofing system
It is composed of a honeycomb reflex sealed box with 30dB sound insulation
No anesthetic fixation system

 

PRODUCT DESCRIPTION

The Mouse Startle Response Testing System is a testing tool used to study the fear and anxiety behavior of mice.
The system assesses the fear and anxiety levels of mice by presenting them in front of stimuli such as sound or light stimuli and observing their responses.
This system can be used to study anxiety disorders, panic disorders, post-traumatic stress disorder and other related disorders, as well as to study the role of hormones and neurotransmitters in anxiety and fear processes.

PRODUCT FEATURES

The Mouse Startie Response Testing System (Startie Response) can be used for routine auditory stimulation startle experiments, auditory stimulation adaptation studies (Habituation) and prepulse inhibition test (PPI), etc., the system is composed of 8 small soundproof chambers, which can emit full audio, which can meet various experimental needs.

 

PRODUCT APPLICATION

The Mouse Startie Response Testing System is commonly used in models of schizophrenia (There are different models of schizophrenia that are used in research to study the underlying mechanisms and potential treatments for the disorder. These models include genetic models, where researchers study mice or rats with genetic mutations that mimic the effects of certain variations in human genes associated with schizophrenia. There are also pharmacological models, where researchers induce schizophrenia-like symptoms in animals by administering drugs that affect neurotransmitters such as dopamine and glutamate. Lastly, there are environmental models, where researchers study the effects of stress, prenatal exposure to infections, or social isolation on the development of schizophrenia-like symptoms in animals. These models can provide insight into the complex and multifactorial nature of schizophrenia and help in the discovery of novel therapies.) , but also in animal models of Tinton’s disease, Parkinson’s disease, Alzheimer’s disease, and other psychiatric disorders.