Banking cryopreserved organs could transform transplantation into a planned procedure
that more equitably reaches patients regardless of geographical and time constraints …

Cryopreservation strives to maximize the viability and biofunctionality of cells and tissues by
cooling them to a subzero temperature to facilitate storage and delivery. This technology has …

Vitrification can dramatically increase the storage of viable biomaterials in the cryogenic
state for years. Unfortunately, vitrified systems≥ 3 mL like large tissues and organs, cannot …

Cryopreservation by vitrification has far-reaching implications. However, rewarming
techniques that are rapid and scalable (both in throughput and biosystem size) for low …

To extend the preservation of donor hearts beyond the current 4–6 h, this paper explores
heart cryopreservation by vitrification—cryogenic storage in a glass‐like state. While organ …

Liver cryopreservation has the potential to enable indefinite organ banking. This study
investigated vitrification—the ice-free cryopreservation of livers in a glass-like state—as a …

Regenerative medicine has the potential to revolutionize healthcare by providing transplant
options for patients suffering from tissue disease or organ failure. Cryopreservation offers a …

Organoid technology has demonstrated unique advantages in multidisciplinary fields such
as disease research, tumor drug sensitivity, clinical immunity, drug toxicology, and …

Effective thawing of cryopreserved samples requires rapid and uniform heating. This is
achievable through nanowarming, an approach that heats magnetic nanoparticles by using …

Enhancing the cooling rate is often an alternative to increasing concentrations of
cryoprotectants to inhibit harmful ice growth during freezing. Processing cell suspensions as …