In the world of surface science, the ability to observe and manipulate materials at the nanoscale has revolutionized countless fields, from materials science to biology. Atomic force microscopy (AFM) is a potent technology at the center of this revolution.
In the realm of scientific research, particularly in the study of batteries, precision and detailed analysis are paramount. One of the key tools that researchers rely on is the Scanning Electron Microscope (SEM). In this blog, we dive into some of the reasons why this is the case.
Mass Photometry has emerged as a powerful tool for precisely measuring the mass of individual biomolecules in solution. In this article, we'll delve into the benefits and limitations of Mass Photometry, shedding light on its capabilities and potential applications.
In the vast landscape of scientific research and nanotechnology, Scanning Probe Microscopy (SPM) stands tall as a cornerstone technique for probing surfaces at the nanoscale. With applications spanning materials science, biology, chemistry, and physics, choosing the right SPM system can be a crucial decision for researchers and industry professionals alike.
Within the semiconductor and nanotechnology research community, one of the main capabilities sought is the capacity to quickly, non-destructively, and quantitatively analyze the composition of trace level dopants and nanostructures. Modern 3D finFET transistors, which are non-planar and generally use single-digit nanometer high-K dielectric insulators in place of SiO2 gate oxides, are an example of the technological advancements in electronics and materials that have created the necessity for this kind of learning.
