Optical coherence tomography technology generates images with micrometer resolution and millimeter imaging depth based on the backscattering of light from different material layers within the sample, providing structural information about the sample. At present, it is mainly used to detect the coating thickness of current pills, effectively guiding the coating machine to carry out more scientific drug preparation work, and has broad application prospects in biomedical, testing, medical and pharmaceutical fields.
light source |
uwbSLD |
Output Optical Power |
>6milliwatt (Front panel) |
Output fiber optic interface |
FC/APCSingle-mode fiber |
Probe working distance |
5 mm |
Spectral detector |
grating spectrometer |
spectral range |
740nm-920nm |
Pixels |
1024*1000 |
Image acquisition rate |
>3frame/second |
Signal dynamic range |
>40 dB |
thickness resolution |
<20 um |
axial resolution |
< 10μm |
lateral resolution |
< 100μm |
Imaging depth |
> 1.0 mm |
sensitivity |
> 60 dB |
Spectral acquisition frequency |
120 kHz |
Output frequency of coating cross-section diagram |
>1 fps |
INPUT VOLTAGE |
220V AC |
power consumption |
40 W max |
network/data transmission |
USB 3.0 Micro-B |
External dimensions |
300 mm(Long)300 mm(Width)135 mm(High) |
weight |
8 Kg(Excluding computer weight) |
Ambient Temperature |
-20°C ~ 55°C (-4°F~131°F) |
Working environment humidity |
20-80% RH |
attachment |
Equipped with a computer,USB3.0Data cable, probe, power cord |
Other applications: Ophthalmology OCT can achieve three-dimensional imaging of important ocular tissues such as cornea, lens, retina, and choroid; In terms of cardiovascular function, OCT can achieve endoscopic coronary artery imaging; Detection and quantitative analysis of small atherosclerotic plaque rupture, fat calcified macular layer, fibrous atherosclerotic plaque and normal arterial wall. Skin related OCT can achieve skin structure imaging with a resolution of 15-20 μ m and a depth of 1.5-2mm; In terms of vascular imaging, OCT can achieve label free three-dimensional microangiography, obtaining three-dimensional imaging of blood flow perfusion within tissues In terms of neuroimaging OCT can be widely applied in the development of neurobiology, retinal neuroimaging, and mechanism research of image-guided cell peripheral nerves. In terms of industrial applications OCT can achieve online/offline material detection, detection of silicon and plastic microelectromechanical systems (MEMS), quality control of solar panels, quality control of composite materials (such as turbine blades), and detection of micro engineering plastic prototype parts.