Atomic Force Microscope T-S2FM-S2101

Introduction

Atomic Force Microscope offers 50μm×50μm XY scan range. It combines optical metallographic and atomic force microscopy for simultaneous dual-mode imaging. Equipped with 2D optical and 3D atomic force measurement with strong anti-interference structure. Integrated laser head and scanning stage ensure stable performance with nanometer-level nonlinear correction. Microscope is ideal for high-resolution surface analysis in nanotechnology and material science.

Manufactured under strict quality control processes, complying with international laboratory equipment standards. Provides 1-year warranty for main components and lifetime technical support.

Applications

Atomic Force Microscope supports nanometer-level imaging of graphite, gold clusters, polystyrene spheres, and polysaccharides.

Widely applied in academic research laboratories, quality control departments of manufacturing enterprises, and testing institutions. Suitable for sample preparation, analysis, and storage in fields such as life sciences, materials science, environmental monitoring, and food safety.

Specifications

Operation Mode	Contact Mode, Tapping Mode, Friction Mode, Phase Mode, Magnetic Mode, Electrostatic Mode
Curves	RMS-Z Curve, F-Z Force Curve
XY Scan Range	50 × 50 μm
XY Scan Resolution	0.2 nm
Z Scan Range	5 μm
Z Scan Resolution	0.05 nm
Scan Speed	0.6Hz to 30Hz
Scan Angle	0° to 360°
Sample Size Capacity	Diameter less than or equal to 90 mm, Height less than or Equal to 20 mm
XY Stage Movement	25 × 25 μm
Shock-Absorbing Design	Spring Suspension, Metal Shielding Box
Output Interface	USB 2.0 / 3.0
Software Compatibility	Windows XP / 7 / 8 / 10
Dimension	700×480×450 mm
Weight	75 Kg

Features

Smart probe protection

Ultra-high magnification

Easy laser alignment

FAQs

1. What is an Atomic Force Microscope?

An Atomic Force Microscope is a high-resolution scanning probe microscope that provides topographical imaging of surfaces at the nanometer scale.

2. How does an Atomic Force Microscope work?

It works by scanning a sharp tip attached to a cantilever over a surface; as the tip interacts with the sample, deflections are detected using a laser and photodetector system to create a high-resolution image.

3. What types of samples can be analyzed using Atomic Force Microscope?

It can analyze a wide variety of samples, including polymers, biological cells, thin films, and nanostructures, due to its non-destructive and versatile scanning capabilities.

4. How is Atomic Force Microscope used in biological research?

It is used in biological research to image living cells, measure mechanical properties of membranes, and study biomolecular interactions at nanoscale resolution without the need for staining or vacuum environments.

5. How can Atomic Force Microscope help in nanotechnology development?

It helps in nanotechnology development by enabling precise imaging, manipulation, and characterization of nanostructures, nanowires, and nanoparticles on various substrates.

6. How is Atomic Force Microscope applied in materials science?

It is applied in materials science to analyze surface roughness, mechanical properties, phase contrast, and adhesion forces of polymers, composites, and thin films at the nanoscale.

7. How is Atomic Force Microscope used in forensic science?

It is used in forensic science to analyze microscopic evidence such as hair, fibers, and surface residues with nanometer precision, aiding in detailed material characterization and trace analysis.

8. Can Atomic Force Microscope be used for quality control in manufacturing?

It is used for quality control in manufacturing by evaluating surface defects, coating uniformity, and texture of components to ensure nanometer-scale precision and consistency.

9. How can Atomic Force Microscope be used in cancer research?

It is used in cancer research to analyze changes in cell stiffness, surface morphology, and biomechanical properties, helping to distinguish between healthy and cancerous cells.

10. How does Atomic Force Microscope contribute to food science?

It contributes to food science by examining the texture, crystallinity, and microstructure of food products, helping improve processing and quality control.