SU3800SE & SU3900SE Scanning Electron Microscopes: Advanced Imaging with Automated Workflows

The Hitachi SU3800SE and SU3900SE scanning electron microscopes provide an imaging and analytical solution for diverse applications. These instruments provide high-resolution imaging, simple sample navigation, and powerful automation features, resulting in dependable, consistent findings across a variety of application scenarios.

Whether users need to work with regular samples or larger industrial materials, these SEMs provide the adaptability and stability required to support the lab's aims. The SU3800SE and SU3900SE are ideal for both research labs and industrial applications, as they help reduce data turnaround time, increase productivity, and ensure reproducible results.

Features

Can Handle a Wide Range of Sample Sizes

SU3800SE & SU3900SE Scanning Electron Microscopes: Advanced Imaging with Automated Workflows

Image Credit: Hitachi High-Tech Europe

  • Both the SU3800SE and SU3900SE have robust, precise eucentric 5-axis specimen stages
  • SU3900SE can accommodate specimens up to 300 mm in diameter, 130 mm in height, and 5 kg in weight. Users can navigate along all five stage axes. Ideal for imaging huge, heavy industrial materials like automotive components without having to trim them down to smaller sizes, which saves time. Alternatively, users can accommodate several samples, such as up to 11 filters with a diameter of 47 mm for long-term automated inspections
  • SU3800SE: Designed for smaller specimens of up to 200 mm in diameter, 80 mm in height, and 2 kg weight. Provides the necessary versatility for generic sample analysis in a wide range of fields
  • These SEMs are capable of handling both normal lab samples and big industrial materials

Effortless Navigation and Precision Control

SU3800SE & SU3900SE Scanning Electron Microscopes: Advanced Imaging with Automated Workflows

Image Credit: Hitachi High-Tech Europe

  • The motorized, eucentric 5-axis stage (X, Y, Z, tilt, and rotation) allows for complete control over specimen orientation
  • The automatically activated stage collision model offers worry-free navigation
  • The advanced optical camera system captures the complete spectrum of motion, allowing for precise and easy navigation throughout large samples
  • Improve observation capabilities with smooth specimen navigation, resulting in accurate and consistent imaging every time

High-Resolution and Auto-Aligned Imaging for Consistent, High-Quality Results

SU3800SE & SU3900SE Scanning Electron Microscopes: Advanced Imaging with Automated Workflows

Image Credit: Hitachi High-Tech Europe

  • The Schottky field emission-powered optics do not interact with the specimen magnetically or electrically. Thus, these microscopes provide consistently outstanding imaging performance over a wide range of specimens
  • A variable pressure mode is included as standard. This allows for easy observation and high-current analysis of non-conductive samples without requiring further sample preparation
  • The optics’ auto-alignment functions are fast and accurate. Thus, novice operators can achieve high-quality output rapidly.

Automated Workflows Free Your Time for Other Work

SU3800SE & SU3900SE Scanning Electron Microscopes: Advanced Imaging with Automated Workflows

Image Credit: Hitachi High-Tech Europe

  • The EM Flow Creator tool automates repetitive imaging processes, minimizing operator workload
  • Configure bespoke observation recipes that include magnification, focus, stage position, and other parameters to ensure consistent, high-quality observations with minimal user effort
  • Ideal for labs looking to improve efficiency and reproducibility in their imaging operations

Applications Gallery

Metals

Fracture surface of iron wire. Microcavitation due to ductile failure can be seen

Fracture surface of iron wire. Microcavitation due to ductile failure can be seen. Image Credit: Hitachi High-Tech Europe

SUS316. Line-like contrast suggestive of dislocations can be seen.

SUS316. Line-like contrast suggestive of dislocations can be seen. Image Credit: Hitachi High-Tech Europe

Electronic Components 

Printed circuit board. The 3D shapes and positions of mounted components can be seen using low magnification/high-tilt observation

Printed circuit board. The 3D shapes and positions of mounted components can be seen using low magnification/high-tilt observation. Image Credit: Hitachi High-Tech Europe

Cross section of layered ceramic capacitor. The composition and crystal contrast of nickel electrodes/dielectric layer can be observed

Cross section of layered ceramic capacitor. The composition and crystal contrast of nickel electrodes/dielectric layer can be observed. Image Credit: Hitachi High-Tech Europe

Inorganic Materials

Zinc oxide particles. Fine particles with sizes of about 50 nm and 3D shape can be seen

Zinc oxide particles. Fine particles with sizes of about 50 nm and 3D shape can be seen. Image Credit: Hitachi High-Tech Europe

High-entropy carbide film. Distribution of particles with different compositions/shapes can be seen

High-entropy carbide film. Distribution of particles with different compositions/shapes can be seen. Image Credit: Hitachi High-Tech Europe

Batteries

Lithium-ion battery cathode material. Distributions of cathode material particles and surrounding binder can be seen

Lithium-ion battery cathode material. Distributions of cathode material particles and surrounding binder can be seen. Image Credit: Hitachi High-Tech Europe

Lithium-ion battery anode material. Lithium-ion battery anode material and binder is clearly distinguished using static voltage contrast

 Lithium-ion battery anode material. Lithium-ion battery anode material and binder is clearly distinguished using static voltage contrast. Image Credit: Hitachi High-Tech Europe

Specifications

Source: Hitachi High-Tech Europe

Item SU3900SE/SE Plus SU3800SE/SE Plus
Electron Optics Secondary Electron Image resolution 0.9 nm @ 30 kV
2.5 nm @ 1 kV
1.6 nm @ 1 kV (*1) (*2)
Magnification 5~600,000×
Electron Gun ZrO/W Schottky Emitter
Accelerating Voltage 0.5 kV~30 kV
Landing Voltage (*1) (*2) 0.1 kV~2 kV
Detectors Standard Detectors Secondary Electron Detector (SED)
TOP detector (TD) (*2)
41+1-segment Semiconductor Type Backscattered Electron Detector (BSED)
Optional Detector (*3) Ultra Variable Pressure Detector (UVD)
Specimen Stage Stage Control 5-axis Motor Drive
Movable Range X 0~150 mm 0~100 mm
Y 0~150 mm 0~50 mm
Z 3~85 mm 3~65 mm
T -20~90°
    R 360°
Specimen Chamber Mountable Specimen Size Max. φ 300 mm Max. φ 200 mm

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