Advanced Analytical Tools for Your Lab

HyperFine Spectrometers

New Standard for Range, Resolution and Speed

What is a HyperFine Spectrometer?

The primary function of a spectrometer is to measure the relative intensity of the spectral components present in a light source over a given spectral range. This process, known as spectrum measurement, is crucial in a wide array of scientific and industrial applications. Various types of spectrometers are available to perform these measurements, each with unique advantages and limitations. Among these are scanning instruments such as Fourier Transform spectrometers and wavemeters, conventional grating spectrometers, Optical Spectrum Analyzers (OSAs), and cross-dispersion spectrometers utilizing echelle gratings or Fabry-Perot etalons.

Cross-Dispersion Spectrometers: A High-Resolution Solution

Cross-dispersion spectrometers stand out due to their ability to achieve very high spectral resolution. Unlike scanning spectrometers, which measure spectra sequentially, cross-dispersion spectrometers capture the entire spectrum in a single shot. This capability is particularly beneficial for recording spectra of pulsed light sources or for performing rapid, repetitive measurements on continuous light sources. The integration of multiple dispersion elements in cross-dispersion spectrometers enhances their resolution and spectral coverage.

HyperFine Spectrometers from LightMachinery

LightMachinery has advanced the field of spectrometry with its innovative line of HyperFine spectrometers. These instruments utilize a unique combination of a Fabry-Perot etalon and a diffraction grating in a cross-dispersion configuration. This design leverages the strengths of both components:

The result is a compact, highly efficient spectrometer capable of achieving spectral resolution that is unachievable with most competing technologies. HyperFine spectrometers are thus particularly well-suited for applications requiring precise spectral analysis over a wide range of wavelengths.

Applications of HyperFine Spectrometers

The exceptional resolution and range of HyperFine spectrometers make them the instrument of choice across various industrial and research fields, including:

  • Optical Coherence Tomography (OCT): For high-resolution imaging and detailed structural analysis.
  • Laser Characterization: Essential for precise measurement of laser line shapes and stability.
  • Atomic and Molecular Spectroscopy: For detailed analysis of atomic and molecular structures and interactions.
  • Environmental Monitoring: Accurate detection and measurement of atmospheric gases and pollutants.
  • Telecommunications: For testing and development of optical communication components and systems.

Explore our offer

HyperFine spectrometers from LightMachinery represent a significant advancement in spectrometry technology. By combining a Fabry-Perot etalon with a diffraction grating in a cross-dispersion setup, these spectrometers offer unmatched resolution and spectral range in a single, compact instrument. Whether for industrial applications or cutting-edge research, HyperFine spectrometers provide the precision and efficiency needed to meet the most demanding spectroscopic challenges.

  • Fabry-Perot Etalon: Provides extremely high spectral resolution by creating multiple interference fringes that can resolve closely spaced spectral lines.
  • Diffraction Grating: Offers broad spectral range coverage, enabling the simultaneous measurement of a wide range of wavelengths.

Our partner for Hyper Fine Spectrometers

Compact, picometer resolution spectrometers for weak or scattered light

The HyperFine series of spectrometers for low intensity sources are designed for measuring hyperfine spectra and subtle spectral shifts from scattered light or distributed sources.  The HyperFine spectrometer from LightMachinery is a compact  spectrometer capable of 1 picometer resolution.   Enabled by VIPA etalons produced by LightMachinery’s patented fluid jet polishing technology.  
The HyperFine HF Series spectrometers are ideal for measuring fine features in plasmas, pulsed laser characterization and for measuring the small spectral shifts from Brillouin or Raman scattering.  Simple PC based software allows the user to review spectra in real time and save or export for more analysis.  LabView drivers enable the HyperFine spectrometer to be integrated into automated experimental setups.

Compact, picometer resolution spectrometers for bright sources (~lasers)

The HN series of spectrometers are designed for characterizing high intensity sources such as laser spectra, the HN Series spectrometers from LightMachinery are capable of 1 picometer resolution.   These spectrometers achieve the resolution of large gratings spectrometers while covering a larger wavelength range.  Simple PC based software allows the user to review spectra in real time and save or export for more analysis.  Labview drivers enable the Hornet spectrometer to be integrated into automated experimental setups.

Brillouin spectroscopy faces the challenge of the un-shifted laser signal overwhelming the weak Brillouin signal. LightMachinery has addressed this by combining its HyperFine spectrometer with a tunable filter that suppresses the main laser peak, achieving a dynamic ratio of 65dB. This system, designated the Pump Killer, features a double-passed air-spaced etalon with computer-controlled tuning and alignment. Utilizing our fluid jet polishing process, this setup offers unparalleled sensitivity and compactness, enabling Brillouin measurements at over 50 times the speed of current technologies.
* Minimal alignment required
* High throughput enabling fast acquisiJon
* High resoluJon and high precision
* High contrast and high pump suppression
* Large spectral range covered in a single shot
* Simple integration – Compact Size


These spectrometers are ideal when you are looking at an extended or distant source (not a 10 micron spot). Now you can collect a lot of light and not worry about trying to convince it to pass through any slit.

Features
* Resolution: sub 0.5nm at 532nm
* Acquisiton and processing speed: >10 Hz
* Greater than 1 degree field of view is typical

Scroll to Top