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The Thermo Scientific DXR3xi Raman Imaging Microscope enables users across many disciplines to quickly create information-rich chemical images without Raman expertise or a deep learning curve. It features a microscopy-first design that uses image-centric operation and built in spectroscopic profiling.
Plus all of the same great features of previous platforms:
From graphene to bioscience, geology to pharmaceuticals, accelerate progress across your organization with the easy-to-use, low-maintenance DXR3xi Raman Imaging Microscope.
Advance research in multi-user labs. Learn how a group of diverse researchers finish their investigations faster with the DXR3 and DXR3xi Raman microscopes.
Carbon nanomaterials have a niche in materials science due to their exceptional electronic, thermal, mechanical, optical and magnetic properties, creating potential applications in a wide range of fields. Raman spectroscopy is an integral part of carbon nanomaterial research because it plays a vital role in the characterization of these materials.
Application mote: Uncovering the Secrets Governing the Chemical Vapor Deposition of Graphene with Rapid Raman Imaging
One major challenge currently facing the graphene industry is the difficulty in controlling the quality of graphene sheets when produced over large areas using industrial scale techniques. The key to solving this challenge lies in gaining a thorough understanding of the synthetic methods used to fabricate macro-sized single-layer graphene films.
Application note: Graphene Protective Coating Capabilities Investigated by Rapid Raman Chemical Imaging
Graphene has demonstrated exceptional barrier properties, being impenetrable to even helium. Coupled with the fact that the material is also optically transparent, this behavior has attracted intense interest in the material science area towards using graphene as a barrier layer in a variety of applications. This application note presents preliminary work investigating the protective capabilities of graphene employing the use of rapid Raman imaging.
Rethinking Raman: Raman Microscopy and Imaging for Shared Academic Labs | Watch now |
Visualizing, Characterizing, and Analyzing Pharmaceutical Constituents with Raman Imaging | Watch now |
Raman Imaging: A Tool for Realizing Graphene and Graphene Composite Materials | Watch now |
Label-free Cellular Analysis with Raman Imaging | Watch now |
Rethinking Raman Imaging: Advanced Materials Characterization | Watch now |
Characterization of Battery Materials: Test cases for the enegery storage of tomorrow | Watch now |
Raman spectroscopy is an established analytical technique for geological samples. It not only provides a fast and efficient way of identifying specific materials, but it also provides considerable information for:
Application note: An Exceptional View of Geological Materials with Raman Imaging
Raman imaging is a useful tool where large areas of the sample can be analyzed and still preserve the spatial information. Covering larger areas of the sample provides confidence knowing that important areas are not being missed. The vast amounts of data generated by Raman imaging gives a more statistically relevant analysis of the sample.
Application note: Visualizing Content Distribution in Tablets with Raman Imaging
There are many types of pharmaceutical formulations with analytical problems such as identifying, verifying and evaluating the component distribution, chemical and molecular structure. This application note focuses on the rapid evaluation of whole tablets using Raman imaging to identify and evaluate the spatial distribution of the tablet components in a fast and efficient manner.
Application note: The Analysis of Low Dose Tablets and Polymorphs Using Raman Imaging
Raman spectroscopy can distinguish between polymorphs, which are the same chemical compounds occurring in different crystalline forms. Polymorph identification is an important analysis step as these variations can affect how the drug is delivered and its therapeutic effectiveness. This application note focuses on using Raman imaging for evaluating the spatial distribution of active pharmaceutical ingredients in lower concentration tablets including the differentiation of polymorphs.
Application note: Product Quality Control of a HME Co-Extrudate Using a Raman Imaging Microscope
Hot melt extrusion production is an attractive alternative to traditional methods for pharmaceutical products. Raman spectroscopy can identify and verify the presence of different components and contaminants in various formulations.
The needs of the Li-ion battery customers can be segmented into in situ and ex situ modes of analysis. In situ analysis allows researchers to follow changes in a battery cell during its charge and discharge cycles. Recent improvements in Raman sensitivity enable these changes to be imaged on a dynamic time scale. The same techniques offer significant improvements for ex situ analysis of battery components by providing more thorough sampling than traditional single point measurements. These application notes present examples showing the advantages of both modes of analysis for Li-ion electrodes.
Application note: In Situ Raman Analysis of Lithium Ion Batteries
Application note: Ex situ Raman Analysis of Lithium Ion Batteries
Multi-user Lab Testimonial
The University of Wisconsin-Madison has both a DXR Raman microscope and DXRxi Raman imaging microscope available in two multi-user laboratories, serving the entire university population. The laboratory users range in departments including pharmacy, geology, materials science, life sciences, and chemistry.
Hear first-hand experiences on how the DXR Raman instruments have improved these researchers' exploration and results.
Carbon nanomaterials have a niche in materials science due to their exceptional electronic, thermal, mechanical, optical and magnetic properties, creating potential applications in a wide range of fields. Raman spectroscopy is an integral part of carbon nanomaterial research because it plays a vital role in the characterization of these materials.
Application mote: Uncovering the Secrets Governing the Chemical Vapor Deposition of Graphene with Rapid Raman Imaging
One major challenge currently facing the graphene industry is the difficulty in controlling the quality of graphene sheets when produced over large areas using industrial scale techniques. The key to solving this challenge lies in gaining a thorough understanding of the synthetic methods used to fabricate macro-sized single-layer graphene films.
Application note: Graphene Protective Coating Capabilities Investigated by Rapid Raman Chemical Imaging
Graphene has demonstrated exceptional barrier properties, being impenetrable to even helium. Coupled with the fact that the material is also optically transparent, this behavior has attracted intense interest in the material science area towards using graphene as a barrier layer in a variety of applications. This application note presents preliminary work investigating the protective capabilities of graphene employing the use of rapid Raman imaging.
Rethinking Raman: Raman Microscopy and Imaging for Shared Academic Labs | Watch now |
Visualizing, Characterizing, and Analyzing Pharmaceutical Constituents with Raman Imaging | Watch now |
Raman Imaging: A Tool for Realizing Graphene and Graphene Composite Materials | Watch now |
Label-free Cellular Analysis with Raman Imaging | Watch now |
Rethinking Raman Imaging: Advanced Materials Characterization | Watch now |
Characterization of Battery Materials: Test cases for the enegery storage of tomorrow | Watch now |
Raman spectroscopy is an established analytical technique for geological samples. It not only provides a fast and efficient way of identifying specific materials, but it also provides considerable information for:
Application note: An Exceptional View of Geological Materials with Raman Imaging
Raman imaging is a useful tool where large areas of the sample can be analyzed and still preserve the spatial information. Covering larger areas of the sample provides confidence knowing that important areas are not being missed. The vast amounts of data generated by Raman imaging gives a more statistically relevant analysis of the sample.
Application note: Visualizing Content Distribution in Tablets with Raman Imaging
There are many types of pharmaceutical formulations with analytical problems such as identifying, verifying and evaluating the component distribution, chemical and molecular structure. This application note focuses on the rapid evaluation of whole tablets using Raman imaging to identify and evaluate the spatial distribution of the tablet components in a fast and efficient manner.
Application note: The Analysis of Low Dose Tablets and Polymorphs Using Raman Imaging
Raman spectroscopy can distinguish between polymorphs, which are the same chemical compounds occurring in different crystalline forms. Polymorph identification is an important analysis step as these variations can affect how the drug is delivered and its therapeutic effectiveness. This application note focuses on using Raman imaging for evaluating the spatial distribution of active pharmaceutical ingredients in lower concentration tablets including the differentiation of polymorphs.
Application note: Product Quality Control of a HME Co-Extrudate Using a Raman Imaging Microscope
Hot melt extrusion production is an attractive alternative to traditional methods for pharmaceutical products. Raman spectroscopy can identify and verify the presence of different components and contaminants in various formulations.
The needs of the Li-ion battery customers can be segmented into in situ and ex situ modes of analysis. In situ analysis allows researchers to follow changes in a battery cell during its charge and discharge cycles. Recent improvements in Raman sensitivity enable these changes to be imaged on a dynamic time scale. The same techniques offer significant improvements for ex situ analysis of battery components by providing more thorough sampling than traditional single point measurements. These application notes present examples showing the advantages of both modes of analysis for Li-ion electrodes.
Application note: In Situ Raman Analysis of Lithium Ion Batteries
Application note: Ex situ Raman Analysis of Lithium Ion Batteries
Multi-user Lab Testimonial
The University of Wisconsin-Madison has both a DXR Raman microscope and DXRxi Raman imaging microscope available in two multi-user laboratories, serving the entire university population. The laboratory users range in departments including pharmacy, geology, materials science, life sciences, and chemistry.
Hear first-hand experiences on how the DXR Raman instruments have improved these researchers' exploration and results.
DXR Raman instruments are intended for research use only, not for use in diagnostic procedures.
Thermo Scientific OMNICxi software will not only seem intuitive, but it will also look familiar. Inspired by optical, scanning electron and atomic force microscopes, this image-centric software naturally complements what you already know. The chemical and morphological analysis is built into the microscope platform rather than requiring you to learn a new spectroscopic technique or theory.
The Thermo Scientific DXR3xi Raman Imaging Microscope enables users across many disciplines to quickly create information-rich chemical images without Raman expertise or a deep learning curve. It features a microscopy-first design that uses image-centric operation and built in spectroscopic profiling.
Plus all of the same great features of previous platforms:
From graphene to bioscience, geology to pharmaceuticals, accelerate progress across your organization with the easy-to-use, low-maintenance DXR3xi Raman Imaging Microscope.
Advance research in multi-user labs. Learn how a group of diverse researchers finish their investigations faster with the DXR3 and DXR3xi Raman microscopes.
Carbon nanomaterials have a niche in materials science due to their exceptional electronic, thermal, mechanical, optical and magnetic properties, creating potential applications in a wide range of fields. Raman spectroscopy is an integral part of carbon nanomaterial research because it plays a vital role in the characterization of these materials.
Application mote: Uncovering the Secrets Governing the Chemical Vapor Deposition of Graphene with Rapid Raman Imaging
One major challenge currently facing the graphene industry is the difficulty in controlling the quality of graphene sheets when produced over large areas using industrial scale techniques. The key to solving this challenge lies in gaining a thorough understanding of the synthetic methods used to fabricate macro-sized single-layer graphene films.
Application note: Graphene Protective Coating Capabilities Investigated by Rapid Raman Chemical Imaging
Graphene has demonstrated exceptional barrier properties, being impenetrable to even helium. Coupled with the fact that the material is also optically transparent, this behavior has attracted intense interest in the material science area towards using graphene as a barrier layer in a variety of applications. This application note presents preliminary work investigating the protective capabilities of graphene employing the use of rapid Raman imaging.
Rethinking Raman: Raman Microscopy and Imaging for Shared Academic Labs | Watch now |
Visualizing, Characterizing, and Analyzing Pharmaceutical Constituents with Raman Imaging | Watch now |
Raman Imaging: A Tool for Realizing Graphene and Graphene Composite Materials | Watch now |
Label-free Cellular Analysis with Raman Imaging | Watch now |
Rethinking Raman Imaging: Advanced Materials Characterization | Watch now |
Characterization of Battery Materials: Test cases for the enegery storage of tomorrow | Watch now |
Raman spectroscopy is an established analytical technique for geological samples. It not only provides a fast and efficient way of identifying specific materials, but it also provides considerable information for:
Application note: An Exceptional View of Geological Materials with Raman Imaging
Raman imaging is a useful tool where large areas of the sample can be analyzed and still preserve the spatial information. Covering larger areas of the sample provides confidence knowing that important areas are not being missed. The vast amounts of data generated by Raman imaging gives a more statistically relevant analysis of the sample.
Application note: Visualizing Content Distribution in Tablets with Raman Imaging
There are many types of pharmaceutical formulations with analytical problems such as identifying, verifying and evaluating the component distribution, chemical and molecular structure. This application note focuses on the rapid evaluation of whole tablets using Raman imaging to identify and evaluate the spatial distribution of the tablet components in a fast and efficient manner.
Application note: The Analysis of Low Dose Tablets and Polymorphs Using Raman Imaging
Raman spectroscopy can distinguish between polymorphs, which are the same chemical compounds occurring in different crystalline forms. Polymorph identification is an important analysis step as these variations can affect how the drug is delivered and its therapeutic effectiveness. This application note focuses on using Raman imaging for evaluating the spatial distribution of active pharmaceutical ingredients in lower concentration tablets including the differentiation of polymorphs.
Application note: Product Quality Control of a HME Co-Extrudate Using a Raman Imaging Microscope
Hot melt extrusion production is an attractive alternative to traditional methods for pharmaceutical products. Raman spectroscopy can identify and verify the presence of different components and contaminants in various formulations.
The needs of the Li-ion battery customers can be segmented into in situ and ex situ modes of analysis. In situ analysis allows researchers to follow changes in a battery cell during its charge and discharge cycles. Recent improvements in Raman sensitivity enable these changes to be imaged on a dynamic time scale. The same techniques offer significant improvements for ex situ analysis of battery components by providing more thorough sampling than traditional single point measurements. These application notes present examples showing the advantages of both modes of analysis for Li-ion electrodes.
Application note: In Situ Raman Analysis of Lithium Ion Batteries
Application note: Ex situ Raman Analysis of Lithium Ion Batteries
Multi-user Lab Testimonial
The University of Wisconsin-Madison has both a DXR Raman microscope and DXRxi Raman imaging microscope available in two multi-user laboratories, serving the entire university population. The laboratory users range in departments including pharmacy, geology, materials science, life sciences, and chemistry.
Hear first-hand experiences on how the DXR Raman instruments have improved these researchers' exploration and results.
Carbon nanomaterials have a niche in materials science due to their exceptional electronic, thermal, mechanical, optical and magnetic properties, creating potential applications in a wide range of fields. Raman spectroscopy is an integral part of carbon nanomaterial research because it plays a vital role in the characterization of these materials.
Application mote: Uncovering the Secrets Governing the Chemical Vapor Deposition of Graphene with Rapid Raman Imaging
One major challenge currently facing the graphene industry is the difficulty in controlling the quality of graphene sheets when produced over large areas using industrial scale techniques. The key to solving this challenge lies in gaining a thorough understanding of the synthetic methods used to fabricate macro-sized single-layer graphene films.
Application note: Graphene Protective Coating Capabilities Investigated by Rapid Raman Chemical Imaging
Graphene has demonstrated exceptional barrier properties, being impenetrable to even helium. Coupled with the fact that the material is also optically transparent, this behavior has attracted intense interest in the material science area towards using graphene as a barrier layer in a variety of applications. This application note presents preliminary work investigating the protective capabilities of graphene employing the use of rapid Raman imaging.
Rethinking Raman: Raman Microscopy and Imaging for Shared Academic Labs | Watch now |
Visualizing, Characterizing, and Analyzing Pharmaceutical Constituents with Raman Imaging | Watch now |
Raman Imaging: A Tool for Realizing Graphene and Graphene Composite Materials | Watch now |
Label-free Cellular Analysis with Raman Imaging | Watch now |
Rethinking Raman Imaging: Advanced Materials Characterization | Watch now |
Characterization of Battery Materials: Test cases for the enegery storage of tomorrow | Watch now |
Raman spectroscopy is an established analytical technique for geological samples. It not only provides a fast and efficient way of identifying specific materials, but it also provides considerable information for:
Application note: An Exceptional View of Geological Materials with Raman Imaging
Raman imaging is a useful tool where large areas of the sample can be analyzed and still preserve the spatial information. Covering larger areas of the sample provides confidence knowing that important areas are not being missed. The vast amounts of data generated by Raman imaging gives a more statistically relevant analysis of the sample.
Application note: Visualizing Content Distribution in Tablets with Raman Imaging
There are many types of pharmaceutical formulations with analytical problems such as identifying, verifying and evaluating the component distribution, chemical and molecular structure. This application note focuses on the rapid evaluation of whole tablets using Raman imaging to identify and evaluate the spatial distribution of the tablet components in a fast and efficient manner.
Application note: The Analysis of Low Dose Tablets and Polymorphs Using Raman Imaging
Raman spectroscopy can distinguish between polymorphs, which are the same chemical compounds occurring in different crystalline forms. Polymorph identification is an important analysis step as these variations can affect how the drug is delivered and its therapeutic effectiveness. This application note focuses on using Raman imaging for evaluating the spatial distribution of active pharmaceutical ingredients in lower concentration tablets including the differentiation of polymorphs.
Application note: Product Quality Control of a HME Co-Extrudate Using a Raman Imaging Microscope
Hot melt extrusion production is an attractive alternative to traditional methods for pharmaceutical products. Raman spectroscopy can identify and verify the presence of different components and contaminants in various formulations.
The needs of the Li-ion battery customers can be segmented into in situ and ex situ modes of analysis. In situ analysis allows researchers to follow changes in a battery cell during its charge and discharge cycles. Recent improvements in Raman sensitivity enable these changes to be imaged on a dynamic time scale. The same techniques offer significant improvements for ex situ analysis of battery components by providing more thorough sampling than traditional single point measurements. These application notes present examples showing the advantages of both modes of analysis for Li-ion electrodes.
Application note: In Situ Raman Analysis of Lithium Ion Batteries
Application note: Ex situ Raman Analysis of Lithium Ion Batteries
Multi-user Lab Testimonial
The University of Wisconsin-Madison has both a DXR Raman microscope and DXRxi Raman imaging microscope available in two multi-user laboratories, serving the entire university population. The laboratory users range in departments including pharmacy, geology, materials science, life sciences, and chemistry.
Hear first-hand experiences on how the DXR Raman instruments have improved these researchers' exploration and results.
DXR Raman instruments are intended for research use only, not for use in diagnostic procedures.
Thermo Scientific OMNICxi software will not only seem intuitive, but it will also look familiar. Inspired by optical, scanning electron and atomic force microscopes, this image-centric software naturally complements what you already know. The chemical and morphological analysis is built into the microscope platform rather than requiring you to learn a new spectroscopic technique or theory.