Cryopreservation of cells and biologics underpins all biomedical research from routine
sample storage to emerging cell-based therapies, as well as ensuring cell banks provide …

Cryopreservation technology has developed into a fundamental and important supporting
method for biomedical applications such as cell‐based therapeutics, tissue engineering …

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

The ability to replace organs and tissues on demand could save or improve millions of lives
each year globally and create public health benefits on par with curing cancer. Unmet needs …

Cryopreservation has become a central technology in many areas of clinical medicine,
biotechnology, and species conservation within both plant and animal biology …

Temperature monitoring is useful in medical diagnosis, and essential during hyperthermia
treatments to avoid undesired cytotoxic effects. Aiming to control heating doses, different …

Core–shell nanoparticles are a unique class of nanostructured materials, which received
significant attention in the last two decades owing to their exciting properties and a wide …

The ability to generate heat under an alternating magnetic field (AMF) makes magnetic iron
oxide nanoparticles (MIONs) an ideal heat source for biomedical applications including …

Cryopreservation of tissues and organs can bring transformative changes to medicine and
medical science. In the past decades, limited progress has been achieved, although …

The inability to preserve vascular organs beyond several hours contributes to the scarcity of
organs for transplantation,. Standard hypothermic preservation at+ 4° C (refs.,) limits liver …