Products: IsoPlane Imaging Spectrographs
Best-in-Class Imaging Spectrometers
IsoPlane imaging spectrometers set new standards of performance and versatility.
The patented, multi-award–winning IsoPlane-320 is the best imaging spectrometer in its class. Fast f/4.6 optics and exceptional image quality ensure maximum throughput and signal-to-noise performance. A unique optical design completely eliminates astigmatism across the focal plane for superior multichannel capabilities. There is simply nothing like the IsoPlane-320.
The IsoPlane-160 is a compact 200 mm imaging spectrometer featuring fast f/3.88 optics, a unique astigmatism-corrected optical design, excellent imaging performance, and spectral resolution that rivals most 1/3 meter Czerny-Turner (CT) spectrometers. The best-in-class IsoPlane-160 offers all of this performance and versatility in a compact design.
IsoPlane features include:
Princeton Instruments’ tradition of technical innovation continues with the multi-award–winning IsoPlane-320 spectrometer, whose exclusive zero-astigmatism optical design provides sharper images and spectra for dramatically improved resolution and signal-to-noise ratio. Resolution comparable to that of a ½ meter spectrometer, with twice the light-gathering power, makes the IsoPlane-320 the instrument of choice for demanding low-light-level applications.
The IsoPlane-160 offers the spectral resolution of a 1/3 meter spectrometer in a compact package. Its unique f/3.88 optical design virtually eliminates astigmatism while providing excellent spectral resolution, making it ideal both for spectroscopy and microspectroscopy applications.
Applications for the IsoPlane spectrometers include
- Micro-spectroscopy: Raman, fluorescence and photoluminescence (PL)
- Multichannel spectroscopy
- Raman spectroscopy
- Fluorescence and photoluminescence
- Laser-induced breakdown spectroscopy (LIBS)
- Biomedical imaging
- Fourier-domain spectroscopy
IsoPlane 320 - Patented, astigmatism-free design
Zero astigmatism at all wavelengths across the entire focal plane gives high spatial resolution
Resolve >100 optical fiber channels with minimal crosstalk
Excellent results with CCD cameras with heights of up to 22 mm
- No other mirror-based scanning spectrograph offers comparable performance.
More photons per pixel increases spectral resolution and contrast
- Greater signal intensity maximizes sensitivity (C6H6 1460 cm-1 image).
Triple-grating turret under complete software control
Access any region from the UV to mid-IR with software-selectable center wavelengths for complete experimental flexibility, unlike lens based spectrographs
Optimize diffraction efficiency and resolution for any experiment with a single mouse click
- Triple grating turrets can be changed in less than a minute, permitting access to up to 9 gratings.
Precision micrometer focus adjustment
Optimizes camera and spectrograph focus.
Provides razor-sharp images and spectra.
High-efficiency optical coatings
Acton #1900 enhanced-aluminum mirrors provide highest reflectivity from 193 nm to mid-IR.
Optional protected silver coatings provide an average > 98% reflectivity.
- Optional gold coatings for NIR.
Compatible with wide variety of Princeton Instruments cameras
PIXIS CCD cameras
ProEM EMCCD cameras
PI-MAX4 ICCDs and emICCD cameras
- NIRvana InGaAs NIR/SWIR cameras
Wide range of optional accessories
Fiber optic bundles, filter wheels, light sources, gratings and more.
IntelliCal wavelength and intensity calibration system
- View the variety of available accessories
Powerful LightField software
Optional: LightField® (for Windows® 7/8, 64-bit) or WinSpec (for Windows XP®/7/8, 32-bit).
Flexible software packages for data acquisition, display, and analysis.
- LightField offers intuitive, cutting-edge user interface, IntelliCal, hardware time stamping, and more. Software sold separately.
IsoPlane Imaging Spectrograph model comparison and datasheets
Specifications determined with 1200 gr/mm grating at 435 nm with 26.8 mm width CCD camera with 20 μm pixels
*10 μm slit widths, 4 mm height
Tip-Enhanced Raman Spectroscopy
TERS - Tip-Enhanced Raman spectroscopy
Laser-Induced Breakdown Spectroscopy
LIBS is considered one of the most convenient and efficient analytical techniques for trace elemental analysis in gases, solids, and liquids. LIBS spectra obtained by the Mars Curiosity Rover have confirmed that our sister planet could have harbored life
Fluorescence, Phosphorescence, and Photoluminescence Spectroscopy
Fluorescence, phosphorescence and photoluminescence occur when a sample is excited by absorbing photons and then emits them with a decay time that is characteristic of the sample environment.
The most common application of Raman spectroscopy involves the vibrational energy levels of a molecule. Incident laser light in the UV, visible or NIR, is scattered from molecular vibrational modes.
Surface-Enhanced Raman Spectroscopy
SERS - Surface-enhanced Raman spectroscopy
Coherent Anti-Stokes Raman Spectroscopy
Coherent Anti-Stokes Raman spectroscopy (CARS) a type of non-linear Raman spectroscopy. Instead of the traditional single laser, two very strong collinear lasers irradiate a sample.
Singlet Oxygen Imaging
Singlet oxygen, the first excited state of molecular oxygen, is a highly reactive species that plays an important role in a wide range of biological processes, including cell signaling, immune response, macromolecule degradation, and elimination of neoplastic tissue during photodynamic therapy.
Combustion researchers rely on laser-based optical diagnostic techniques as essential tools in understanding and improving the combustion process.
Plasma Emission Spectroscopy
The different types of plasma emission spectroscopy can be categorized by how the plasma is generated. Spectra of nuclear fusion plasmas are used to ascertain the chemical species present and other properties.
Resonance Raman Spectroscopy
Instead of fluorescence, some types of colored molecules produce strong Raman scattering at certain conditions. This effect was called Resonance Raman.
Stimulated Raman Scattering
Stimulated Raman scattering takes place when an excess of Stokes photons that were previously generated by normal Raman scattering are present or are deliberately added to the excitation beam.
Aberration-Free Spectrographs and NIR-Sensitive InGaAs Cameras Facilitate the Development of Carbon Nanotube Optical Sensors for Early Disease Detection
Dr. Daniel Heller and his research group at Memorial Sloan Kettering Cancer center utilized the IsoPlane 320 spectrograph and NIRvana SWIR camera in their recent research.
Advanced CCD Cameras and Imaging Spectrographs Facilitate Acquisition of Novel Femtosecond Stimulated Raman Spectroscopy Data To Improve SERS Biosensors
Accurate characterization of surface-enhanced Raman spectroscopy (SERS) biosensors, fluorescent dye molecules that hold great promise for in vivo bioanalyte detection, can often be quite difficult as the overwhelming isoenergetic fluorescence signal typically makes it challenging to measure resonance Raman cross-sections for the molecules. To overcome this obstacle, researchers at the University of Minnesota in Minneapolis recently utilized etalonbased femtosecond stimulated Raman spectroscopy (FSRS), a technique designed to acquire a stimulated Raman signal without strong fluorescence or interference from signals resulting from other four-wave mixing pathway
Low-Frequency Raman Spectra of Amino Acids Measured with an Astigmatism-Free Schmidt-Czerny-Turner Spectrograph: Discovery of a Second Fingerprint Region
Low-Frequency Raman Spectra of Amino Acids Measured with an Astigmatism-Free Schmidt-Czerny-Turner Spectrograph: Discovery of a Second Fingerprint Region
Real-Time Imaging of Singlet Oxygen via Innovative Microspectroscopy Instrument
New Two-Dimensional InGaAs Detector Thermoelectrically Cooled to –85°C Facilitates Scientific Research
Scientific NIR-II/ SWIR Cameras Enable Femtosecond Frequency Comb Vernier Spectroscopy
New, Deeply Cooled InGaAs Cameras Provide Ultrahigh Sensitivity for Key Spectral Range
Acquiring and processing Raman spectral data for the C2-D stretching vibration of 2 deuterated histidine
Because of histidine’s importance and unique functionality, we wanted to map out the probe group’s sensitivity to allow for its general use in protein related research.
Solar cell inspection via photoluminescence imaging in the NIR/SWIR
Scientific-grade, deep-cooled, large-format InGaAs FPA cameras such as the NIRvana from Princeton Instruments will enable researchers to observe photoluminescence emission at longer wavelengths and rapidly obtain more detailed information about defects within multicrystalline silicon solar cells.
Tip-Enhanced Raman Scattering (TERS)
Researchers: Samuel Berweger and Prof. Markus Raschke – Department of Physics, Department of Chemistry, and JILA, University of Colorado at Boulder used Princeton Instruments' camera and spectrograph for their research.
Ultra-High-Speed, Time-Resolved Spontaneous Raman Scattering Spectroscopy in Combustion
The recent use of a new diagnostic apparatus to measure the dynamics of each individual molecular species, as opposed to simply acquire bulk information (e.g., pressure), points to the possibility of performing temperature and frequency analyses of species in combustion.
Low-frequency Raman Spectra of Carbon Nanotubes Measured with an Astigmatism-free Schmidt-Czerny-Turner Spectrograph
An IsoPlane has been interfaced to a low frequency Raman module that enables measurement of peaks with Raman shifts as low as 10 cm-1 using only a single stage spectrograph.
Articles Authored by Princeton Instruments
Spectroscopic calibration uses LEDs and nonlinear optimization
This article, authored by Michael Case of Princeton Instruments for Laser Focus World, describes how accurate, repeatable wavelength and intensity information is possible for a spectrometer using an LED source and nonlinear optimization by taking into account variations in system optics, diffraction gratings, and detector sensitivities.
LightField Tips and Tricks
These tips and tricks focus on LightField features to enhance the user experience when operating Princeton Instruments spectroscopy systems.
Download operation manuals for Princeton Instruments cameras, spectrometers, and accessories from our ftp site.
Dynamic control of light emission faster than the lifetime limit using VO2 phase-change
This proof-of-concept demonstration shows how integration with phase-change materials can transform widespread phosphorescent materials into high-speed optical sources that can be integrated in monolithic nanoscale devices for both free-space and on-chip communication.
Hydrogen-Bonding Modification in Biuret Under Pressure
An IsoPlane SCT320 spectrograph with an air-cooled PIXIS 400BR eXcelon CCD and the LightField software (Princeton Instruments) were used to collect the Raman spectra in this research.
Near-infrared exciton-polaritons in strongly coupled single-walled carbon nanotube microcavities
Research teams from Germany and the UK use Fourier Plane spectroscopy to show strong coupling of Carbon Nanotubes in microcavities. This research could lead to electrically pumped electron-polariton lasers.
Quantifying and controlling the magnetic dipole contribution to 1.5-µm light emission in erbium-doped yttrium oxide
NIRvana SWIR/NIR camera and IsoPlane 320 spectrograph are instrumenatal in recent groundbreaking research.
Cell Membrane Proteins Modulate the Carbon Nanotube Optical Bandgap via Surface Charge Accumulation
NIRvana 640 SWIR/NIR camera and IsoPlane 320 are integral parts of the experimental setup in cell adhesion research involving carbon nanotubes.
Sensitive method for measuring third order nonlinearities in compact dielectric and hybrid plasmonic waveguides
Researchers at University of Sydney, UCal Berkeley and Lawrence Livermore Labs incorporate the IsoPlane and NIRvana to demonstrate a sensitive method for the nonlinear optical characterization of micrometer long waveguides, and apply it to typical silicon-on-insulator nanowires and to hybrid plasmonic waveguides.
Raman-based Identification of Circulating Tumor Cells for Cancer Diagnosis
An IsoPlane 160 spectrograph and PIXIS camera were used by researchers in their presentation of the use Raman-based methodologies to distinguish cancer cells from normal blood cells. In a first approach, a microfluidic chip was developed to collect Raman spectra from optically trapped cells.
LightField 64-bit software - trial download
Download a 45-day free trial of Princeton Instruments' Revolutionary 64-bit data acquisition package for spectroscopy and imaging.
IntelliCal-Automated wavelength and intensity calibration routines significantly improve accuracy of recorded spectra
Automated wavelength and intensity calibration routines significantly improve accuracy of recorded spectra.
Fully automated wavelength calibration method optimizes data accuracy
Currently offered as a LightField package option, patent-pending IntelliCal® technology from Princeton Instruments enables fast, reliable wavelength calibration with minimal user input.
Better Imaging with a Schmidt-Czerny-Turner Spectrograph
The IsoPlane spectrograph has a unique optical design that completely eliminates field astigmatism at all wavelengths and at all points across the focal plane, and reduces coma to negligible levels. This means the IsoPlane gives sharp and spatially well resolved images across the entire CCD sensor.
Improved Spectra with a Schmidt-Czerny-Turner Spectrograph
The data in this paper have shown that by decreasing optical aberrations and increasing fluence, the IsoPlane gives spectra with better spectral resolution and SNR compared to Czerny-Turner spectrographs. Higher spectral resolution means peaks that are too close together to be resolved by a CT spectrograph can be clearly seen with the IsoPlane.
Aberration-Free Raman Spectroscopy with the IsoPlane
This poster shows that the well-known Raman spectra of carbon tetrachloride and cyclohexane are obtained with higher resolution and signal-to-background ratios with the IsoPlane spectrographs than with a conventional 300 mm C-T instrument.
EMCCD cameras for ultra-low light, read noise-limited applications.
Scientific grade, cooled InGaAs focal plane array cameras for demanding SWIR imaging and spectroscopy
PIXIS CCD cameras play a key role in revolutionary research performed in leading labs around the world.
Ground breaking software to control your Princeton Instruments systems. Now with Windows 10 support. It's like nothing you have ever experienced!
The reference standard of ICCD cameras. Single photon sensitivity and ultra-fast, <500psec gating
PyLoN high-resolution front-illuminated, back-illuminated, & back-illuminated deep-depletion imaging & spectroscopy CCDs.
This InGaAs detector offers 16-bit digitization and leads the industry with the fastest spectral rate and lowest system read noise.
Princeton Instruments offeres a variety of light sources for use with their spectrometers.
Several different fiber optic bundles are designed specifically for use with Princeton Instruments monochromators and spectrographs.
Our filter wheel assemblies are designed to hold up to six (6) 1.0” (25.4mm) diameter samples or filters.
A wide variety of single channel detectors for use with IsoPlane, SpectraPro and TriVista systems.
There are significant advantages of multi-grating turrets in spectrometers.
Princeton Instruments monochromators and spectrographs use diffraction gratings as the optical element which separates (disperses) polychromatic “white” light into individual wavelengths (colors).
Fully automated, spectral calibration system - for up to 10x more wavelength accuracy and instrument independent results