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

Cryopreservation can help to meet the demand for biosamples of high medical value.
However, it remains difficult to effectively cryopreserve some sensitive cells, tissues, and …

Pancreatic islet transplantation can cure diabetes but requires accessible, high-quality islets
in sufficient quantities. Cryopreservation could solve islet supply chain challenges by …

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

The development of a widely adopted cryopreservation method remains a major challenge
in Drosophila research. Here we report a robust and easily implemented cryopreservation …

The phenomena of ice formation and growth are of great importance for climate science,
regenerative medicine, cryobiology, and food science. Hence, how to control ice formation …

In cryopreservation of biological samples such as cells, the formation, growth and
recrystallization of ice crystals can cause fatal mechanical damage to cells. Therefore, how …

Despite recent advances in controlling ice formation and growth, it remains a challenge to
design anti‐icing materials in various fields from atmospheric to biological cryopreservation …

One of the greatest concerns in the subzero storage of cells, tissues, and organs is the ability
to control the nucleation or recrystallization of ice. In nature, evidence of these processes …

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 …