Fertility test of mice (<em>Mus musculus</em>)

Infertility has emerged as a global health concern, impacting around 8%-12% of couples during their reproductive years. Due to limitations in obtaining human biological samples, mouse models have been widely used for investigating gene functions. Fertility assessment in mouse models is a critical component in reproductive biology for studying gene function and elucidating mechanisms of reproductive disorders. However, natural mating observation of mice may yield inconsistent results, especially in the absence of standard guidelines, prolonged experimental cycles, and operational complexity. This protocol establishes a comprehensive breeding strategy for evaluating murine fertility through systematic vaginal plug monitoring and litter size quantification within defined timeframes. Key steps include (1) standardized male-female pairing protocols, (2) daily vaginal plug inspection, and (3) longitudinal tracking of pregnancy outcomes. This protocol presents a straightforward and easily implementable protocol for mouse mating cage setup and statistical analysis, enabling reliable fertility assessment under natural breeding conditions. Key features • Standardized natural mating protocol combining vaginal plug monitoring (daily) and litter size tracking. • Time-optimized workflow completes fertility phenotyping in 2 months. • An easy and custom-constructed vaginal plug inspection tool for optimized vaginal plug inspection.

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Publication Details

Journal
BIO-PROTOCOL
Published
2025-01-01
DOI
https://doi.org/10.21769/bioprotoc.5408
Primary Topic
Genetics and Physical Performance
Type
article
Field-Weighted Citation Impact
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article

Fertility test of mice (Mus musculus)

Qinghua Shi, Bo Yuan, Baolu Shi, Menglei Yang et al.
BIO-PROTOCOL
Genetics and Physical Performance
article

Fertility test of mice (Mus musculus)

Qinghua Shi, Bo Yuan, Baolu Shi, Menglei Yang, Mengmeng Ming
article en

Abstract

Infertility has emerged as a global health concern, impacting around 8%-12% of couples during their reproductive years. Due to limitations in obtaining human biological samples, mouse models have been widely used for investigating gene functions. Fertility assessment in mouse models is a critical component in reproductive biology for studying gene function and elucidating mechanisms of reproductive disorders. However, natural mating observation of mice may yield inconsistent results, especially in the absence of standard guidelines, prolonged experimental cycles, and operational complexity. This protocol establishes a comprehensive breeding strategy for evaluating murine fertility through systematic vaginal plug monitoring and litter size quantification within defined timeframes. Key steps include (1) standardized male-female pairing protocols, (2) daily vaginal plug inspection, and (3) longitudinal tracking of pregnancy outcomes. This protocol presents a straightforward and easily implementable protocol for mouse mating cage setup and statistical analysis, enabling reliable fertility assessment under natural breeding conditions. Key features • Standardized natural mating protocol combining vaginal plug monitoring (daily) and litter size tracking. • Time-optimized workflow completes fertility phenotyping in 2 months. • An easy and custom-constructed vaginal plug inspection tool for optimized vaginal plug inspection.

BIO-PROTOCOLVol. 15(1377)
University of Science and Technology of China (CN), Hefei National Center for Physical Sciences at Nanoscale (CN)
Zero hunger
Openalex Percentile: Top 80%
Genetics and Physical Performance
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