Optical density measurements were obtained using a scanning spectrophotometer DTX 880 Multimode Detector (Beckman Coulter).
The material ultrastructure was analyzed using a scanning microscope (EVO LS15 ZEISS) with SE1 detector, under high vacuum and accelerating voltage EHT = 20 kV.
Particle internal compositions were studied using a scanning electron microscope equipped with an x-ray energy dispersive spectroscopy detector and wavelength dispersive spectroscopy scan.
A low dose system, which uses a scanning technique with a linear array of silicon detectors, has also been developed.
The samples were analysed after the separation of cysteine, γ-glutamylcysteine (γEC), hydroxymethylglutathione (hmGSH, a homologue of GSH in Poaceae) and GSH by reverse-phase HPLC (Waters, Milford, MA, USA) using a W474 scanning fluorescence detector (Waters).
This paper presents the real-time motion planning i.e., map building and path planning of an autonomous mobile manipulator capable of scanning natural terrain using a detector e.g., a landmine detector.
All the samples were scanned using a flat panel detector (Hamamatsu, 2400 × 2400 pixels) with the same technical parameters: 90 kV at 63 μA with a collected projection over 360° degrees at 0.5° angular incremental step.
Strips were scanned using a Mini-scan radio TLC scanner with Flow-Count detector (LabLogic, Sheffield, UK).
Images were digitally acquired using a Hitachi S-2460N Scanning Electron Microscope at a 'high pressure' setting of 30 Pa using a Robinson detector.
The preoperative arthro-CT scans and postoperative CT scans were performed using a Multi-Detector scanner (General Electric, Waukesha, WI).
