This review aims to explore advanced reproductive technologies for male fertility
preservation, underscoring the essential role that animal models have played in shaping …

Sperm cryopreservation technology significantly contributes to the safeguarding of genetic
resources, particularly for endangered species, and supports the use of artificial …

During cryopreservation, sperm undergoes structural and molecular changes such as ice
crystal formation, DNA fragmentation, and reactive oxygen species (ROS) production …

This pioneering research investigated apigenin potential to augment rooster sperm
cryosurvival in an extender model. Apigenin is a natural antioxidant flavonoid showing …

Cryopreservation of sperm can cause oxidative stress and damage, leading to decreased
different functional parameters and fertilization potential. In this study, we evaluated two …

Fructans have long been known with their role in protecting organisms against various
stress factors due to their ability to induce controlled dehydration and support membrane …

Despite the vital role of seminal plasma (SP) in maintaining sperm function and aiding
gamete interaction in many species, SP is usually removed before cryopreservation of …

Male reproductive efficiency is primarily defined by the generation of high-quality and viable
sperm cells in farm animals. However, the literature shows that male fertility has declined in …

Cryopreservation poses significant challenges to the preservation of sperm integrity and
function, particularly in small ruminants where cryodamage is pronounced. This review …

Semen preservation quality affects the artificial insemination success rate, and seminal
exosomes are rich in various proteins that are transferable to sperm and conducive to sperm …