Czerny-Turner Spectroscope

dor’s spectrographs are characterized by their high resolution, high throughput, high modularity, and ease of use. They are capable of operating at a macro- to nano-scale, with fluxes as low as a single photon and time-resolution as low as a nanosecond. The technology of Andor’s spectrograph is derived from the Czerny-Turner, Echelle, or Transmission optical designs.input:
output:Features of a spectrograph include:input:
output:A high degree of modularityinput:
output:Motorization that is intelligentinput:
output:TruRes™ – The most advanced spectral resolutioninput:
output:Adaptive FocusTM technology (patented)Suitable for both physical and life sciences.Czerny-Turner, Echelle, and Transmission Optical Spectrographsinput:
output:Andor’s spectrograph family is built upon Czerny-Turner, Echelle, or Transmission optical designs, and it provides a variety of platforms that are either highly configurable or highly specialized to meet the specific needs of your experiment. input:
output:focal length of 328 mminput:
output:An aperture of F/4.1Adaptive Focus (Patented)

Dual inputs and outputsinput:
output:Raman br/>

Raman is a molecular spectroscopy technique that can provide chemical and structural fingerprint information for a diverse array of samples, such as nanomaterials, polymers, powders, liquids, or cells/tissues. The primary Raman techniques are as follows:input:
output:Impulsive and incitedinput:
output:Surface-Enhanced Raman Spectroscopy (SERS)Surface Offset Raman Spectroscopy (SORS)Tip-Enhanced Raman Spectroscopy (TERS)Coherent Anti-Stokes Raman Scattering (CARS)Luminescenceinput:
output:Luminescence spectroscopy is employed in a wide range of applications, such as the investigation of metal complexes, organic LEDs (OLEDs), quantum dots, cell dynamics, stand-off detection of chemical compounds (e.g. explosives), and the measurement of scintillator properties. Main techniques consist of: