Table 2.
Advantages and disadvantages of ferret model used for biomedical research
| SI. No | Advantages | Disadvantages |
|---|---|---|
| 1 | Hardy nature | Complicated husbandry requirements compared to other animal models |
| 2 | Social behavior | Higher cost |
| 3 | Small size compared to non-rodent models | Minimal commercial availability |
| 4 | Relatively low amount of test compounds required compared to canine and non-human primate models | Enormous relative heterogeneity |
| 5 | Early sexual maturity (approximately eight months of age) compared to large animal models | Lack of availability of inbred and specific pathogen–free ferrets |
| 6 | Ability to vomit compared to rodents and lagomorphs: To study the emetic potential of future candidates in oncology | Shortage of contract laboratories with experience using them |
| 7 | Absence of inverted yolk sac placenta: Useful in teratogenicity research | Low number of quality breeders |
| 8 | Susceptible to several known human teratogens including methyl mercury, ethyl alcohol, thalidomide, vitamin A analogues, and alkylating anticancer agents | Lack of comprehensive databases |
| 9 | Upper and lower respiratory tracts similar to humans | |
| 10 | Ability to cough and sneeze | |
| 11 | Susceptible to unadapted human influenza virus isolates | |
| 12 | The ability to monitor viral shedding kinetics from both the upper and/or lower respiratory tracts using nasal washing or lower bronchoalveolar lavage | |
| 13 | Ferret ACE2 (angiotensin-converting enzyme 2) gene is phylogenetically equivalent to that of humans | |
| 14 | Presence of outer subventricular zone (OSVZ) progenitor in brain similar to primates, especially in humans |