This brochure explores innovative solutions in Raman spectrometry, designed for industries like pharmaceuticals, life sciences, environmental science, and materials research. Gain insight into advanced instruments which deliver high sensitivity, resolution, and user-friendly operation for precise molecular analysis. Discover Raman spectroscopy’s ability to measure molecular vibrations, providing insights into chemical composition and structural properties. Plus, explore cutting-edge tools like NanoRaman and automated systems for enhanced imaging and data analysis. With the Raman Academy offering training and resources, along with robust customer support, the potential of the user can maximize their spectroscopy systems.

Raman spectroscopy was discovered by Sir C.V. Raman in 1928 to provide insights into molecular structures. Initially, the method faced challenges due to weak signal detection and interference from fluorescence and stray light. Early instruments utilized mercury arc lamps and photographic plates, requiring prolonged exposure times. The advent of lasers in the 1960s revolutionized the field, leading to the development of the first commercial Raman spectrometers in 1966. Watch the video to see how HORIBA has been at the forefront of Raman innovation for over 50 years, contributing significantly to advancements in this analytical technique.

This handbook provides a detailed introduction to Raman spectroscopy. It explains the principles of Raman scattering, where laser light interacts with molecular bonds to produce unique spectral fingerprints. Applications span diverse fields, including pharmaceuticals, geology, life sciences, semiconductors, and materials science. The guide also highlights Raman’s qualitative and quantitative capabilities, microscopic spatial resolution, and non-invasive analysis for solids, liquids, and gases. Plus, it compares Raman with techniques like FTIR, XRD, and mass spectrometry, emphasizing its advantages in speed, sample preparation, and detailed molecular information. Advanced Raman systems like confocal microscopes, hybrid solutions, and ultra-fast imaging enhance its precision and versatility. Additionally, the handbook addresses sample requirements, system components, and cutting-edge advancements, such as tip enhanced Raman scattering (TERS) and transmission Raman spectroscopy (TRS), demonstrating its importance for modern research and industry applications.

For a deeper understanding of Raman spectroscopy, watch Thibault Brulé, Raman Product Manager at HORIBA, as he unpacks the Raman effect through real-world examples. He explores the origins of this powerful phenomenon and demonstrates how Raman spectroscopy reveals essential insights into molecular structures and material properties. You'll gain a clearer understanding of how the technique works, what information it can uncover, and why it is such a valuable tool across scientific disciplines.

Raman microscopy has evolved into a standard technique across a wide range of applications, shifting from a high-end method to one that is commonly used in many fields. With its growing adoption, there is an increasing demand for practical tips and specialized tools to support these diverse applications. These tools can include accessories and software specifically designed for different tasks. This video provides an in-depth look at the tools and accessories that enhance Raman microscopy for specific applications, such as polymers, microplastics, batteries, pharmaceuticals, and materials.

To fully harness graphene’s potential, precise characterization is essential. Accurately determining layer numbers, assessing disorder, and evaluating structural integrity is critical for advancing graphene-based technologies. Raman micro-spectroscopy has emerged as a gold-standard technique for this analysis, offering non-destructive, high-resolution insights into graphene’s properties. In this application note, HORIBA explores how Raman spectroscopy enables fast, accurate, and reproducible graphene characterization, helping researchers accelerate innovation in nanoelectronics. Download the full application note to learn more about how this technique can enhance your graphene research.

A high-performance Raman microscope is essential for unlocking the full potential of 2D materials like graphene, ensuring precise, reliable characterization. But what exactly makes a good Raman microscope? Factors such as spatial resolution, sensitivity, stability, and ease of use all play a crucial role in obtaining accurate and reproducible data. In this video, experts at HORIBA break down the key features that define a high-quality Raman microscope, and explain what researchers should consider when selecting the right system for their applications. Watch now to gain expert insights into optimizing your Raman analysis for graphene, 2D materials, and beyond.

The LabRAM Soleil™ is a high-performance Raman microscope designed for advanced material characterization. With its superior resolution and cutting-edge technology, it delivers precise and reliable results for a wide range of applications, from 2D materials to biological samples.

The XploRA™ PLUS is a versatile and compact Raman system offering high sensitivity and speed. Ideal for both routine analysis and complex research, it provides exceptional flexibility and can be easily integrated into various academic and industrial workflows.