How Ultra-Advanced FIB-SEM Microscopes are Accelerating Materials Discovery & Design

Learn everything you need to know about ZEISS Crossbeam with these exclusive expert interviews and free article downloads

6 Mar 2018
Sonia Nicholas
Managing Editor and Clinical Lead

Editorial article

The ZEISS Crossbeam family of FIB-SEM microscopes combine the imaging and analytical performance of a field emission scanning electron microscope (FE-SEM) with the processing ability of a focused ion beam (FIB).

With ZEISS Crossbeam you combine the electron optics of the Gemini column with the ability of a next-generation FIB for material processing and sample preparation on a nanoscopic scale. You can use the modular platform concept and the open and easily extendable software architecture of this 3D nano-workstation for high-throughput nanotomography and nanofabrication of even the most demanding, charging or magnetic samples.

Image provided courtesy of Prof. Chawla, Arizona State University, Tempe, USA


Thought-leaders around the world are using ZEISS Crossbeam in their groundbreaking research. Read these exclusive interviews to learn more:

Could Correlative Microscopy Solve the Energy Problems of the Future?

The Materials Research Institute (IMFAA), at Aalen University of Applied Sciences, Germany, focuses on the application and further development of materialography methods. SelectScience® speaks to Dr. Timo Bernthaler, materials scientist at IMFAA, to find out how microscopy is helping to advance this important research.

Use of Correlative Imaging to Bridge the Materials Gap Between Scientific Disciplines

Dr. Richard Johnston is an associate professor in the Material Research Centre, Swansea University, Wales, UK. Johnston leads a research group focused on imaging, with a particular emphasis on X-ray microscopy, and is the co-director of the Advanced Imaging of Materials (AIM) center. As an expert in the field of correlative imaging, and an advocate of collaboration between diverse scientific fields, Johnston’s work is bridging the gap between disciplines. Read this exclusive SelectScience® interview to find out more.

Correlating Structural and Mechanical Properties Over Time: The Fourth Dimension of Materials Science

Nikhilesh Chawla is Fulton Professor of Materials Science and Engineering (MSE) at Arizona State University, Tempe, USA, where he studies the mechanical behavior and modeling of advanced materials. In this exclusive interview, SelectScience® speaks to Prof. Chawla to find out more about his work.

Image provided courtesy of ZEISS Microscopy


Free related application notes to download:

ZEISS Crossbeam - Enabling Smart FIB Work with SmartSEM

This application note describes SmartFIB, a new user interface for FIB operation in ZEISS Crossbeam instruments, and some of its capabilities. SmartFIB is an extension of SmartSEM, the operating software of ZEISS scanning electron microscopes, which is active for ZEISS FIB-SEM systems. When milling an object by focused ion beam (FIB), it is essential to control a large set of patterning parameters. These define the so-called FIB milling strategy. Minor changes in the milling strategy can have a dramatic impact on the results achieved. SmartFIB enables the user to flexibly tailor their FIB milling strategy to obtain the desired results, by providing access to all relevant parameters like dose, pixel spacing, pixel dwell time and FIB current.


Correlative Microscopy Protocols: A Reference Guide to Correlative Sample Preparation

This document provides an overview of existing sample preparation know-how for correlative microscopy. While many of the cited protocols still reference TEM they are typically applicable to the modern technique of field emission SEM with little or no modifications.


Local Charge Compensation in SEM Material Analysis

In this application note, high-resolution SEM imaging is executed on non-conductive samples by the integration of a charge compensation system.

Microstructure of Skin Cream Using Cryo-planing and Cryo-FIB-SEM

Soft materials containing water or other solvents, such as home and personal care products, are not high vacuum compatible. Therefore, it is difficult to expose their microstructure. This application article demonstrates the use of cryo-SEM and cryo-FIB-SEM techniques in exposing the microstructure of a soft material, using face cream as an example.

Characterization of Solid Oxide Electrolysis Cells by Advanced Focused Ion Beam-SEM Tomography

This white paper investigates the microstructural changes after cycling of a solid oxide electrolysis cell (SOEC), studied by means of focused ion beam (FIB)-SEM tomography. The advanced tomography package, ZEISS Atlas 5 3D Tomography, enables high-resolution 3D electron imaging and 3D energy dispersive X-ray spectroscopy (EDS) elemental imaging, using two different sets of SEM conditions optimized for the respective task.

Multi-Scale Correlative Study of Corrosion Evolution in a Magnesium Alloy

This application note describes the results of a multi-scale correlative tomography study on the corrosion of a magnesium alloy ZEISS Atlas 5 is used to efficiently link and navigate between different microscopic modalities, e.g. in situ sub-micron X-ray microscopy, nanoscale X-ray microscopy and FIB-SEM tomography. The study provides a description of the complex crack and corrosion byproduct geometries which can lead to a more complete understanding of the underlying mechanisms for corrosion.

Visit the SelectScience product directory to learn more about the ZEISS Crossbeam product family

ZEISS Crossbeam Family

ZEISS Research Microscopy Solutions

Within ZEISS Crossbeam Family you have the choice between Crossbeam 340 or Crossbeam 550. Exploit the variable pressure capabilities of Crossbeam 340. Or use Crossbeam 550 for your most demanding characterizations and choose the chamber size, standard or large, that best suits your samples.

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X-Ray Diffraction and SpectroscopyX-Ray diffraction & spectroscopy are used in material characterization to discern the structure and elemental composition of a sample. X-Ray diffractometers (XRD) are superior instruments in elucidating the dimensional atomic structure of crystalline materials, including powders, thin films and single crystals. For large unit cells or ordered macromolecules, consider small-angle X-ray scattering (SAXS). X-ray spectroscopic techniques include X-ray fluorescence (XRF) and X-ray photoelectron spectroscopy (XPS), both providing simple and accurate methods for determining the elemental composition of a material. Energy dispersive (EDXRF) and wavelength dispersive (WDXRF) XRF spectrometers are available, as well as handheld/portable devices. High-resolution, 3D microstructure characterization of materials can be achieved with X-ray microscopes combining sub-micron resolution imaging with 3D computed tomography. Find the best XRD and XRF spectrometers in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Particle CharacterizationParticle characterization instruments are used to determine particle size distribution, shape, surface area, zeta potential, density and porosity of particles and materials. Multiple tecchniques are available for determining particle size, shape and count including dynamic light scattering (DLS), laser diffraction, electrozone (Coulter technique), imaging particle analysis and single particle optical sensing. Determine the density of your material with a gas pycnometer or examine its surface area and porosity with gas adsorption analyzers and mercury porosimeters. Find the best particle characterization instruments in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Light MicroscopyLight microscopes or optical microscopes are used to visualize microscale objects under magnification, including cells, clinical specimens and materials. Lab equipment for light microscopy includes confocal microscopes, fluorescence microscopes, zoom and stereo microscopes. Microscope slides and imaging reagents are available for visualizing samples, as well as various microscope stages and incubators for large or temperature-sensitive samples. Find the best light microscopes in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Electron MicroscopyElectron microscopes (EM) are used to create high-resolution images of samples at the nanoscale by means of an accelerated beam of electrons as a source of illumination. Types of electron microscope include scanning electron microscopes (SEM), transmission electron microscopes (TEM), scanning transmission electron microscopes (STEM) and cryo-electron microscopes. Focused ion beam (FIB) microscopes are useful for modifying or milling a sample surface with nanometer precision, as well as imaging. Find the best electron microscopes in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.MicroscopyMicroscopy is a technique used to observe small objects in detail, from cells to materials, using light or electron microscopes. It enables researchers to examine structures with high resolution, aiding in fields such as biology, medicine, and materials science. With advanced microscopy techniques, scientists can gain insights into cellular processes, tissue structures, and material properties. Explore the best microscopy solutions in our peer-reviewed product directory, compare products, read customer reviews, and get pricing directly from manufacturers.