The main trend in the development of hardware components for digital and analog electronic equipment is to reduce the size of the active regions of diode and transistor structures.
Marine mineral resources have been attracting a lot of attention lately, thanks to the rising demand for raw materials that are used in smart electronics, medical sciences and renewable energy products.
For the first time, researchers have fabricated light-guiding structures known as waveguides just over one micron wide in a clear silicone commonly used for biomedical applications. The tiny, flexible waveguides can be used to make light-based devices such as biomedical sensors and endoscopes that are smaller and more complex than currently possible.
Most lasers have only one color. All the photons it emits have exactly the same wavelength. However, there are also lasers whose light is more complicated. If it consists of many different frequencies, with equal intervals in between, just like the teeth of a comb, it is referred to as a "frequency comb".
“Recently, the EBS project is officially entering a new stage, which is the fruit of our hard work of the last four years. Our imagination, engineering design, quality control and assembly, guided by strict project management, has made it possible to start the swap in our tunnel between the old and the new storage ring.
An international team of researchers has taken a big step closer to creating an optical quantum computer, which has the potential to engineer new drugs and optimise energy-saving methods.
Both new MIL RA Alignment Modules feature a low profile 3/8” rugged laser housing, fitted with a M12 connector. A PVC jacketed cable 2 meters long, integrated power supply and optional mounting bracket complete this sturdy ready-to-use system.
A team of researchers from the Moscow Institute of Physics and Technology, and Aarhus University in Denmark has developed an algorithm for predicting the effect of an external electromagnetic field on the state of complex molecules.
Scientists of Far Eastern Federal University (FEFU), in collaboration with Russian and foreign colleagues, have developed a technology of nanostructure ultrafast laser printing. The new method allows creating nanoscale structures on the surface of metals using a femtosecond laser with a frequency of one million pulses per second.
A team at the HZB has improved the manufacturing process of photocathodes and can now provide photocathodes with high quantum efficiency for bERLinPro.
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