A team of researchers at the University of California San Diego have developed a thin, flexible, light-absorbing material that has numerous potential applications such as transparent window coatings that keep cars and buildings cool on hot days, devices capable of more than three times the solar cell efficiencies than what is available, and thin, lightweight shields capable of blocking thermal detection.
XYZTEC release a range of 6.4M pixel vertical view camera systems with the addition of Coaxial (Light Field) and improved Diffused (Dark Field) illumination. These new systems increase automation capability and complement our existing high magnification image capture.
Researchers at the Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab) have used advanced imaging techniques to observe what happens within a cathode particle while lithium-ion batteries are charged and discharged.
Anderson Janotti, from the University of Delaware, won a National Science Foundation Faculty Early Career Development Award in order to develop computational models of defects in materials that are used for optoelectronics, electronics, and energy applications.
A thermoelectric organic transistor has been developed by Dan Zhao and Simone Fabiano at the Laboratory of Organic Electronics, Linköping University. A temperature rise of a single degree is more than enough to cause a detectable current modulation in the transistor.
Recently, certain members of the class of crystalline materials called perovskites have shown immense promise for optoelectronic applications.
Scientists at Rice University suggest that boron could be the most interesting new nanomaterial of the century, over graphene.
Among materials, there is a familiar anomaly, a nonconforming metal, the properties of which have been discovered through a new study carried out by an international research team including scientists from the Department of Energy’s (DOE) Lawrence Berkeley National Laboratory (Berkeley Lab) and the University of California, Berkeley.
Secondary ion mass spectrometry(SIMS) is a versatile, highly sensitive technique for compositional analysis of surfaces from the atomic layer level to profiles through depths over 100’s of nanometres. The technique utilises surface probing by a beam of energetic ions to displace and ionise surface atoms for acquisition and identification of both positive and negative secondary ions by mass spectrometry.
Prior Scientific announces the HH201 and HH201F filter sample holders for its precise H101A and flat top H101F ProScan® motorised microscope stages.
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