ICPMS
More information
WebinarsAbout usContact usTerms of use
LabRulez s.r.o. All rights reserved. Content available under a CC BY-SA 4.0 Attribution-ShareAlike

SENTERRA II Compact Raman Microscop

Brochures and specifications | 2021 | Bruker OpticsInstrumentation
RAMAN Spectroscopy, Microscopy
Industries
Manufacturer
Bruker

Summary

Importance of the Topic


The development of compact Raman microscopes that offer high spectral resolution, spatial precision and automated workflows is crucial for a broad range of scientific and industrial applications. Raman microscopy provides nondestructive chemical imaging and molecular identification at the microscale, making it indispensable in research fields such as materials science, pharmaceuticals, life science and quality control. The SENTERRA II system addresses the demand for a user friendly yet research grade instrument capable of high throughput and exacting performance requirements.

Objectives and Study Overview


This document presents the design principles, performance highlights and practical benefits of the SENTERRA II compact Raman microscope. The key goals include combining high detection sensitivity with excellent spectral and spatial resolution, ensuring unaltered full spectral coverage, integrating robust calibration and automation features, and demonstrating versatility across multiple sample types and workflows.

Methodology and Instrumentation


Raman measurements are performed using a modular confocal optics design that supports both high throughput and true confocal performance via the FlexFocus aperture. Laser excitation lines (including 532 nm, 785 nm and optional 1064 nm from an FT-Raman module) can be switched rapidly to mitigate fluorescence and optimize sample response. Spectra are acquired at up to 4 cm-1 resolution and can be increased to 1.5 cm-1 for detailed studies. Permanent automatic wavelength calibration is achieved with the SureCAL technology, maintaining accuracy below 0.1 cm-1. The intuitive OPUS software guides users through sample visualization, spectral preview, region definition, automated data acquisition and immediate multivariate evaluation using univariate integration, cluster analysis, library search and chemometric algorithms.

Main Results and Discussion


The SENTERRA II delivers research-grade performance in a compact footprint. Key findings include:
  • Excellent sensitivity enabling low-power analysis of delicate samples such as battery electrodes and biological tissues.
  • High spectral resolution without sacrificing full spectral range, supporting detection of isotopic shifts and polymorphism.
  • Submicron confocal spatial resolution and rapid Raman imaging, generating high detail maps in seconds.
  • Effective suppression of fluorescence background by selection of optimal excitation wavelength or background correction algorithms.
  • Reliable depth profiling in polymers and laminates to reveal subsurface layer composition.
  • Automated qualification routines conforming to USP, Ph. Eur., ASTM standards and compliance with GMP, GLP and 21 CFR Part 11.

Benefits and Practical Applications


By combining automation, performance and compliance features, the SENTERRA II supports:
  • Quality control in pharmaceutical manufacturing for polymorph detection and formulation uniformity.
  • Mineralogy and geoscience analysis with reduced fluorescence interference.
  • Life science investigations of cells and tissues under low laser exposure.
  • Failure analysis in coatings, laminates and interfaces, including medical implants.
  • Art and cultural heritage studies through non-invasive chemical imaging.
  • In-situ and remote sampling via fiber optic probes.

Future Trends and Potential Applications


Advances in data analytics and machine learning are expected to further enhance spectral interpretation and image classification. Hybrid systems combining dispersive and FT-Raman modules will extend wavelength options and reduce fluorescence effects. Integration with microfluidics, live cell imaging and in-line process monitoring will broaden applications in biotechnology, materials research and industrial process control. Furthermore, cloud-based data management and standardized workflows will enable collaborative research and routine quality assurance across distributed laboratories.

Conclusion


The SENTERRA II compact Raman microscope represents a next-generation solution that unites high spectral fidelity, spatial precision, user-guided automation and regulatory compliance. Its modular design and versatile software enable users across research and industry to obtain reliable chemical and structural information efficiently. The system’s performance and flexibility make it a valuable asset for advanced material characterization, quality control and emerging analytical challenges.

Instrumentation Used


  • SENTERRA II compact Raman microscope with confocal optics and FlexFocus aperture.
  • Laser excitation sources: 532 nm, 785 nm; optional FT-Raman 1064 nm laser.
  • SureCAL automatic wavelength calibration technology.
  • OPUS software suite for guided workflow, data acquisition, processing and multivariate evaluation.

Content was automatically generated from an orignal PDF document using AI and may contain inaccuracies.

Downloadable PDF for viewing
 

Similar PDF

Toggle
Raman Application Guide
Raman Application Guide
2021|Bruker|Guides
Raman Application Guide Innovation with Integrity R AMAN The Raman Application Guide Page 3 The Basic System Page 4 The All-Rounder Page 5 Polymers & Plastics Page 6 Semiconductors & Crystalline Structures Page 7 Graphene & Carbon Page 8 Forensics…
Key words
raman, ramansenterra, senterramicroscope, microscopespectroscopy, spectroscopyobjective, objectivepackage, packagesoftware, softwarelens, lenswhite, whiteupgrade, upgradeswitch, switchaccessory, accessorylight, lightautomatic, automatickit
Raman-Troubleshooting and Failure Analysis of precision mechanics
Application Note R537 Raman-Troubleshooting and Failure Analysis of precision mechanics Small Components, Smaller Defects There are many examples of tiny mechanical components in everyday items like electrical motors, cameras, and clocks. These parts significantly contribute to the funcionality of the…
Key words
raman, ramanvisual, visualmicroscopy, microscopytroubleshooting, troubleshootingglass, glasssenterra, senterracover, coverconfocal, confocaldefects, defectsmicroscope, microscopebecontaminated, becontaminatedcogwheel, cogwheelfuncionality, funcionalitypocketwatch, pocketwatchresidue‘s
Gathering Evidence by IR and Raman Spectroscopy
Gathering Evidence by IR and Raman Spectroscopy
2015|Bruker|Brochures and specifications
Forensic Analysis Gathering Evidence by IR and Raman Spectroscopy Innovation with Integrity F T-IR Forensic Sciences apply Infrared and Raman spectroscopic methods for many years to analyze all types of unknown samples. These methods are proven to reveal the chemical…
Key words
raman, ramanvarnish, varnishfibers, fibersforgery, forgeryalpha, alphaspectroscopy, spectroscopyforensic, forensichighs, highssenterra, senterrapaint, paintevidence, evidencesubstances, substancesart, artidentify, identifydrugs
INVENIO ® X The fully automated advanced R&D Spectrometer
INVENIO ® X The fully automated advanced R&D Spectrometer
2019|Bruker|Brochures and specifications
INVENIO® X The fully automated advanced R&D Spectrometer Innovation with Integrity F TIR INVENIO X marks a new standard of advanced Highest BMS Changer Accuracy FTIR R&D spectroscopy and completes the next generation INVENIO platform. The innovative INTEGRAL™ interferometer with…
Key words
invenio, inveniomultitect, multitectchanger, changerintegral, integralinterferometer, interferometerbms, bmsfir, firtransit, transitdigitect, digitectbeam, beamchannel, channelopus, opusquicklock, quicklockwheel, wheelhyperion
Other projects
GCMS
LCMS
Follow us
More information
WebinarsAbout usContact usTerms of use
LabRulez s.r.o. All rights reserved. Content available under a CC BY-SA 4.0 Attribution-ShareAlike