NCF1000 Laser Confocal Microscope

As life science research advances to deeper levels and broader scopes, efficient imaging technology has become a core element of scientific breakthroughs. Acquiring large-sample images requires both expanding the imaging range and greatly shortening acquisition time, so as to precisely capture the dynamic reactions inside cells. The NCF2000 laser confocal microscope is a comprehensive innovation over the NCF1000, built to meet the ultra-high demands of high-throughput, high-quality imaging in modern biological research. Imaging speed and phototoxicity optimization: it adopts resonance scanning technology, greatly shortening image acquisition time and achieving extremely high imaging efficiency. At the same time, it significantly reduces phototoxicity, making it friendlier to live cell samples and enabling long-term dynamic observation. Resolution and signal-to-noise ratio improvement: the newly upgraded spatial array confocal scanning head features low-noise, high-sensitivity spatial detection capability. It effectively improves the image signal-to-noise ratio and resolution, allowing you to easily capture subtle structures and key details in samples. Whether it is the panoramic presentation of large-area ultrastructure or the precise recording of rapidly changing life processes, the NCF2000 can provide professional, clear confocal imaging solutions, helping you explore the unknown fields of life science and reveal more secrets of life.

Optical system: The world's only two-dimensional dispersive Raman spectrometer combining an echelle grating and a two-dimensional array CCD detector, integrating the features of wide band, high resolution and fast detection speed. It abandons the conventional method of acquiring high-resolution spectra by measuring different spectral bands multiple times and then stitching them together, and can acquire a high-resolution Raman spectrum covering the entire band within one second. Dispersion system: Adopts echelle grating technology with no moving elements, ensuring high system stability. Detector: High-sensitivity two-dimensional CCD detector, enabling simultaneous acquisition of data across the entire spectral range, avoiding spectral distortion

Magnification (X) [10X]: 10X Working distance (WD) [10X]: 32 mm Resolution [10X]: 1.2 μm

The working principle of a DIC differential interference contrast microscope is to use the coherent light interference phenomenon to convert changes in sample surface topography into optical path differences. A position-sensitive detector is used to detect changes in the intensity of the light wavefront, and digital signal processing is used to obtain changes in the height of the sample surface.