Photoluminescence microspectroscopy has a crucial part in scientific research as it enables researchers to study the light emission properties of materials at a microscopic level. By analyzing the intensity and characteristics of photoluminescence, scientists can obtain comprehensive insights into the behavior of electrons, energy transitions, and excited states. This analytical technique is also used to characterize the electrical and optical properties of semiconductors and other materials. This blog post will discuss some key challenges of photoluminescence microspectroscopy and offer solutions.
Confocal Raman microscopy has emerged as a powerful tool for researchers wanting to study a sample's chemical or molecular composition. In this field of chemical imaging, confocal Raman combines the spectral information obtained through Raman spectroscopy with the spatial filtering capabilities of a confocal optical microscope, which enables high-resolution visualization and analysis of samples. In this blog post, we will explore five key applications of confocal Raman microscopy across various scientific areas.
Protein molecules, comprising linear chains of amino acids, are crucial to cellular processes in living organisms. Protein crystals, a specific and intricate configuration of these molecules, offer substantial potential for diverse applications, notably in drug design and bioseparation. The process of growing these crystals to investigate their tertiary structures through X-ray diffraction, however, presents an array of technical challenges. This article will provide a comprehensive overview of techniques used to identify and characterize protein crystals.
Petrography is the study and classification of rocks, typically by using microscopy techniques to examine thin slices of material and look at their composition. For the steel industry, coke petrography has become one of the key analysis tools for determining coke quality and, ultimately, whether a coke sample will be suitable for use in the creation of steel alloys.1
The ability to characterize nanoscale materials is essential to many applications and industries around the world. Nanoscale materials are increasingly beneficial to fields such as electronics, medical devices, and scientific research, so combating the current challenges is crucial for their development. In this blog post, we look at what nanoscale material characterization is and the challenges in the field.
