Combining nanodrug-based chemotherapy and cryoablation provides an effective strategy to eliminate cancer stem-like cells the root of cancer resistance and metastasis, which will help to improve the safety and efficacy of treating malignancies that are refractory to conventional therapies.
Researchers have applied a novel microscopy technique to characterize metal-organic framework (MOF) materials, potentially opening a pathway for engineering the chemical properties of these materials at the nanoscale.
Researchers have developed a new heat-based technique for counting and measuring the size of microscopic particles. The technique is less expensive than light-based techniques and can be used on a wider array of materials than electricity-based techniques.
Researchers have created a new type of 'ultracold' molecule, using lasers to cool atoms nearly to absolute zero and then gluing them together, a technology that might be applied to quantum computing, precise sensors and advanced simulations.
Researchers have discovered that even simple systems, such as neutral atoms, can possess chaotic behavior, which can be revealed using the tools of quantum mechanics. The ground-breaking research opens up new avenues to observe the interaction between quantum particles.
Will one-atom-thick layers of molybdenum disulfide, a compound that occurs naturally in rocks, prove to be better than graphene for electronic applications? There are many signs that might prove to be the case. But physicists have shown that the nature of the phenomena occurring in layered materials are still ill-understood and require further research.
Researchers have discovered that creating a graphene-copper-graphene 'sandwich' strongly enhances the heat conducting properties of copper, a discovery that could further help in the downscaling of electronics.