Organic semiconductors have emerged as a promising alternative to their inorganic counterparts owing to their versatility, low-cost fabrication and tunable electronic characteristics. These ...

The electronic properties of semiconductors and crystalline materials are central to modern technology, underpinning advances in energy conversion, computing, and sensor applications. An intricate ...

Semiconductor materials play an important part in developing nanophotonic technologies. Semiconductors are used for generating controllable photons as well as for confining and exploiting them for ...

[Left] The schematic shows the multi-functions of the 2D-WS2 bottom interfacial layer for interface stability and the vertically well-ordered domain structures of HZO, which leads to excellent ...

In the world of semiconductor nanodevices, where quantum effects and atomic positions dictate behavior, the demand for advanced characterization methods is on the rise, and spectroscopic techniques ...

Semiconductor nanoparticles typically consist of a crystalline core made from a semiconductor material, such as cadmium selenide (CdSe), cadmium sulfide (CdS), or indium phosphide (InP). The core is ...

For decades, scientists have relied on electrodes and dyes to track the electrical activity of living cells. Now, engineers have discovered that quantum materials just a single atom thick can do the ...

Researchers have demonstrated that by using a semiconductor with flexible bonds, the material can be moulded into various structures using nano containers, without altering its composition, the ...

In today’s world, semiconductors are essential components of our everyday lives and the backbone of our economies. From the devices we use to communicate to the machines that power our factories, ...

The latest studies using CRAIC Technologies’ microspectroscopy have delivered important insights into the characterization of semiconductors and other new materials. The advanced abilities of CRAIC ...