The Nanobase XperRF is a two-in-one instrument with a focus on enhanced material analysis. The instrument has a Raman spectroscopy module and a TRPL measurement module, both of which offer useful techniques to determine characteristics of a material. It's rather easy to note that this instrument is a combination of XperRAM S Series and Xper-FLIM.

With XperRF, you can enjoy all the high efficiency features of XperRAM S Series which includes high performance spectrometer and detector plus a wide and fast scanning scanner module. For a TRPL measurement module, we collaborate with PicoQuant, a renowned company from Berlin, Germany, to maximize the measuring

What XperRF can do for you

  • Raman spectrum acquisition
  • Raman map image acquisition
  • Photoluminescence (PL) data acquisition
  • Electroluminescence (EL) data acquisition
  • Time-Resolved Photoluminescence (TRPL) data acquisition

There is a broad range of applications where you can utilize data of Raman, TRPL, PL, and EL - from biology/medical research to solar cell efficiency analysis. If you would like to consult about how these data can make a contribution to your research, we are just one message away! Please contact us now here.


  • Time-Resolved Photoluminescence (TRPL) is a general term while Time-Correlated Single Photon Counting (TCSPC) or Fluorescence Lifetime Imaging (FLIm) are special techniques to achieve TRPL.
  • Fluorescence lifetime imaging microscopy or FLIM is an imaging instrument type for producing an image based on the differences in the exponential decay rate of the fluorescence from a fluorescent sample.
  • ​Fluorescence lifetime imaging yields images with the intensity of each pixel determined by τ, which allows researchers to view contrast between materials with different fluorescence decay rates, and also produces images which show changes in other decay pathways.
  • ​Fluorescence lifetimes can be determined in the time domain by using a pulsed source. When a population of fluorophores is excited by an ultrashort or delta pulse of light, the time-resolved fluorescence will decay exponentially.
  • Time-correlated single-photon counting (TCSPC) is usually employed as a measurement method because it compensates for variations in source intensity and single photon pulse amplitudes. More specifically, TCSPC records times at which individual photons are usually detected by a single photon avalanche photo diode (SPAD) with respect to the excitation laser pulse.
  • ​The recordings are repeated for multiple laser pulses and after enough recorded events, researchers are able to build a histogram of the number of events across all of these recorded time points. This histogram can then be fit to an exponential function that contains the exponential lifetime decay function of interest, and the lifetime parameter can accordingly be extracted.


  • Raman is a light scattering technique. Raman analyzes a small amount of light (laser) scattered at different wavelengths (or colors), which depend on the chemical structure of the analyte.
  • By analyzing Raman spectra, we can identify what kind of material it is, so we simply call a Raman spectrum (Raman data realized in a graph format) as a fingerprint of a material. Analysis of Raman images which correspond with Raman spectra, is also in-demand Raman analysis technique.
  • TRPL data and Raman data show correlation. See the below image for data comparison between the two different techniques. The below data of single oral epithelial cell was taken from XperRF.

Powerful TCSPC module supplier

Reliable and ultra fast TCSPC module

  • With an optional dual channel time tagging electronics, you can achieve a just 10-second TRPL mapping time for 50 µm x 50 µm of a scanning area.

Why XperRF can step up your Raman game

  • High Raman peak efficiency = Precise Raman dataNot like most Raman manufacturers, we have adopted transmission grating in a Raman spectrometer to boost efficiency to over 90%.

  • The spectrometer for XperRF (XPE200) coupled with an OEM CCD by ANDOR is also designed for a high efficiency.

Wider and faster laser scanning

  • Our realization of wide, fast laser scanning capability using a single Galvo mirror maximizes even our scanning efficiency and helps you see a bigger picture of your Raman data.

 Why laser scanning?

  • It reduces production cost yet maintains excellent performance.

High signal to noise ratio = Great Raman spectral resolution

  • For a better spectral resolution of Raman data produced by XperRAM S Series (the Raman module of XperRF), the system boasts a high signal to noise ratio via a transmission grating and the smallest possible number of optics.


  • Confocal/3D Raman imaging and analysis
  • Fast 2D scanning and bright field microscopic imaging
  • Up to three laser/filter selections
  • Interchangeable and rotatable volume phase holographic (VPH) grating selections
  • Photoluminescence (PL) and Electroluminescence (EL)
  • Fluorescence life time imaging (FLIM)


  • ​Scanner module
  • Microscope
  • Raman body
  • Spectrometer
  • Laser/filter set
  • TCSPC system
  • NanoSpectrum analysis software


  • ​Material science
  • Life science
  • Pharmaceuticals / cosmetics
  • Semiconductors
  • Geology
  • Carbon materials

Download 2022 Nanobase Raman Spectroscopy  Instruments Brochure here.