In an article published in Photonics, researchers established a photovoltaic array model under a laser and simulated it via MATLAB/Simulink.
In a study published in Applied Sciences, researchers have proposed an automatic evaluation method based on 3D laser scanning technology to measure the geometric accuracy of subway stations. The technique enables high precision and all-around geometric evaluation of underground systems.
A recent study published in Remote Sensing demonstrates multi-dated data from terrestrial laser scanning surveys and unmanned aerial vehicle (UAV) operations for accurate and immediate monitoring of a landslide. This technique provides operational information about the stability of the landslide to the local establishments.
In an article published in Oriental Insects, researchers developed a novel laser insect control device that was automated with machine vision for influencing and neutralizing insect pests. The system eliminates the use of environmentally damaging pesticides.
Investigators at Caltech have devised a new diagnostic imaging technology that offers surgeons greater accuracy in identifying cancerous bone tissue.
Quasi-parametric amplification enables high efficiency and low noise amplification of ultrashort pulses.
In an article published in the open-access journal Sensors, researchers presented a novel C-band dual-wavelength erbium-doped fiber laser aided by an artificial backscatter reflector (ABR) based on femtosecond laser direct writing.
Scientists have built an analytical tool that precisely measures hydrogen’s temperature and concentration using an ultrafast laser.
Lasers have become a significant part of everyday life. The applications this technology offers are so extensive even the scientists who handle lasers on a daily basis are constantly astonished. Among them is University of Queensland Research Fellow Dr Martin Plöschner from the School of Information Technology and Electrical Engineering (ITEE).
In a pre-proof article posted in the Journal of Hazardous Materials, researchers applied novel laser direct infrared imaging (LDIR) spectroscopy to achieve rapid microplastic analysis (MP analysis).