Specifically designed software was used for 3-D imaging and conversion of data to a standard STL format.
Junjie Yao, PhD, assistant professor of biomedical engineering, develops photoacoustic imaging: the conversion of light beamed through tissue into ultrasound waves that are then analyzed to create high-resolution images.
Ge or Ge-based nanomaterials have shown valuable physical properties for various applications in solar cells, optoelectronics, bio-imaging, energy conversion, and storage [2].
However, for applications such as solar-to-electric conversion, imaging, and non-imaging Fresnel lens have shown almost same conversion factor.
Understanding the causes and degree of anisotropy, for example, are critical for depth conversion, imaging, fluid identification (e.g. AVO) and dynamic Poisson's ratio.
In terms of imaging, strong photothermal conversion efficiency translates into efficient generation of acoustic waves through the thermoelastic mechanism, and there has been widespread interest in using plasmonic nanoparticles as contrast agents for photoacoustic imaging [ 2, 3].
Yuan and colleagues [ 20] performed a meta-analysis to evaluate and compare the ability of FDG-PET, single-photon emission tomography (SPECT), and structural MR imaging to predict conversion to AD in patients with MCI.
In the present work, we designed and synthesized PEGylated Yb2O3 Er nanoparticles with high Yb content in single particle (denoted as PEG-UCNPs) suitable for both X-ray CT imaging and up-conversion imaging.
In this paper, we introduce a performance-enhanced image encryption scheme based on depth-conversion integral imaging and hybrid cellular automata (CA), aiming to meet the requirements of secure image transmission.
Quantum-well structures are intensively investigated for applications in IR imaging and solar energy conversion.
