New research findings show that besides their applications in bioimaging techniques as phosphorescent markers, the new platinum nanocrystals may also have an application in biomedicine: to encapsulate water-insoluble drugs.
New research findings show that besides their applications in bioimaging techniques as phosphorescent markers, the new platinum nanocrystals may also have an application in biomedicine: to encapsulate water-insoluble drugs.
A new approach combines statistical inference, optimization theory, and computational materials physics to design new materials without large amounts of existing data.
Germanium Telluride is an interesting candidate material for spintronic devices. In a comprehensive study, researchers have now revealed how the spin texture switches by ferroelectric polarization within individual nanodomains.
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New research findings show that besides their applications in bioimaging techniques as phosphorescent markers, the new platinum nanocrystals may also have an application in biomedicine: to encapsulate water-insoluble drugs.
A new approach combines statistical inference, optimization theory, and computational materials physics to design new materials without large amounts of existing data.
Germanium Telluride is an interesting candidate material for spintronic devices. In a comprehensive study, researchers have now revealed how the spin texture switches by ferroelectric polarization within individual nanodomains.