The ABN AFM-001 Atomic Force Microscope developed by Aibona is a cutting-edge high-resolution surface analysis instrument engineered for precise characterization of sample surface structures. Boasting ultra-high nanoscale resolution, it delivers highly detailed surface data and finds extensive applications in materials science, nanotechnology, biology, semiconductor manufacturing and other sectors. Equipped with multiple scanning modes and a precision manipulation system, it readily handles structural and property analysis of diverse complex samples.
This microscope supports Contact Mode and Tapping Mode, allowing users to switch operational settings according to sample hardness and intrinsic properties, making it ideal for both rigid and fragile specimens. Tapping Mode effectively minimizes sample damage, rendering it the optimal option for soft materials and biological samples. The Aibona AFM also features 3D imaging functionality that generates sharp three-dimensional topographic maps of sample surfaces, enabling in-depth investigation of surface features and microstructures. Beyond high-resolution imaging and multi-mode scanning, it incorporates Non-Contact Mode. When observing soft or biological specimens, measurements can be completed without physical contact with the sample surface, substantially lowering mechanical damage and preserving the samples’ native state.
Compatible not only with solid specimens but also liquid and thin-film samples, this atomic force microscope delivers outstanding versatility. It provides accurate quantitative data for both nanoscale structural characterization and surface property research of materials. Furthermore, the instrument requires an operating environment with a temperature range of 18°C to 25°C and relative humidity below 60% to guarantee stable performance and high-quality measurement outputs.
Scanning Modes: Contact Mode, Tapping Mode
Scanning Range
X-Y axis: 70 μm × 70 μm
Z axis: 17 μm
Spatial Resolution
X-Y axis: ≤1 nm
Z axis: ≤0.1 nm (sub-nanometer vertical resolution)
Scanning Rate: Max. 10 Hz for high-speed scanning
Probe Type: Standard silicon probes (Si Probe); Spring constant: 0.01 N/m ~ 40 N/m, compatible with various samples
Sample Dimensions
Max. sample size: 15 mm × 15 mm
Max. sample thickness: 2 mm
Noise Level
X-Y axis: ≤0.01 nm RMS
Z axis: ≤0.05 nm RMS
Scanner: High-precision piezoelectric ceramic scanner with closed-loop control
Operating Environment
Temperature: 18°C ~ 25°C
Humidity: ≤60% RH
Data Acquisition & Image Resolution: 512×512 to 2048×2048 pixels, clearly capturing subtle sample features
Control Software & Interfaces: Intuitive GUI; USB and Ethernet interfaces for stable data transmission
Power Supply: 220V/50Hz or 110V/60Hz input compatible
• Ultra-high resolution: Nanoscale resolution for precise characterization of sample surface structures• Multi-mode scanning: Equipped with multiple selectable scanning modes• 3D imaging: Generates distinct 3D topographic maps of sample surfaces with abundant fine details• Non-contact measurement: Minimizes mechanical damage, ideal for soft materials and biological specimens• Ultra-precise control: Atomic-level manipulation accuracy for high-precision surface analysis• Wide sample compatibility: Suitable for solid, liquid, thin-film and other specimen types
Materials Science: Topography and roughness analysis of 2D materials, thin films and nanostructures
Semiconductor & Microelectronics: Wafer surface defect inspection and device structural characterization
Life Science: Nanostructure characterization of cells, biomacromolecules and biological membranes
Chemistry & Energy Industry: Surface structural research of catalytic and electrode materials
University Teaching & Research: Experimental teaching and academic research on nanotechnology and surface science
Scanning Modes: Contact Mode, Tapping Mode
Scanning Range
X-Y axes: 70 μm × 70 μm
Z axis: 17 μm
Spatial Resolution
X-Y axes: ≤1 nm
Z axis: ≤0.1 nm (sub-nanometer vertical resolution)
Scanning Speed: Max. 10 Hz, enabling fast scanning performance
Probe TypeStandard silicon probes (Si Probe). Spring constant ranges from 0.01 N/m to 40 N/m for adaptation to diverse samples.
Sample Dimensions
Maximum sample size: 15 mm × 15 mm
Maximum sample thickness: 2 mm
Noise Level
X-Y axes: ≤0.01 nm RMS
Z axis: ≤0.05 nm RMS
Scanner: High-precision piezoelectric ceramic scanner with closed-loop control
Operating Environment
Temperature: 18°C ~ 25°C
Humidity: ≤60% RH
Data Acquisition & ResolutionImage resolution ranges from 512×512 to 2048×2048 pixels, delivering high-definition visualization of tiny sample details.
Control Software & InterfacesUser-friendly graphical user interface (GUI); equipped with USB and Ethernet ports to guarantee stable data transmission.
Power RequirementsCompatible with 220V/50Hz or 110V/60Hz power input

Optical images and AFM scanning images of cobalt selenide
Type | Positioning | Technical Features | Application Cases |
Standard Scientific Research Atomic Force Microscope(AFM-R) | Designed for routine scientific research and material characterization requirements, it balances imaging performance and system stability, and is suitable for most nanoscale surface morphology and mechanical testing experiments. | · Supports contact mode, tapping mode and non-contact mode · Nanometer-scale lateral resolution and sub-nanometer vertical resolution · Closed-loop scanning control with excellent imaging repeatability · Compatible with air environments and optional liquid environments | · Characterization of Two-Dimensional Materials: Measuring the layer number, height steps and surface roughness of two-dimensional materials such as graphene, MoS₂ and WSe₂ · Research on Thin-Film Materials: Analyzing the uniformity and surface morphology of sputtered films and evaporated films · Analysis of Nanostructures: Observing the size distribution and arrangement state of nanoparticles and nanowires · Scientific Research Experiments in Universities: Applied to routine nanocharacterization experiments in materials science, physics, chemistry and related disciplines |
High-Resolution Scientific Research Atomic Force Microscope(AFM-HR) | Designed for advanced high-end research requirements, it delivers ultra-high imaging resolution and low system noise performance, making it suitable for atomic or near-atomic structural studies. | · Ultra-low noise scanning system · Highly stable probe and scanner head structure · Optimized vibration isolation and temperature drift suppression design · Supports long-term stable scanning | · Atomic-scale step imaging: Observing atomic steps and lattice structures on the surface of single-crystal materials · High-quality single crystal research: Analyzing surface defects of epitaxial thin films and as-grown crystals · Interface and defect research: Investigating microstructures such as dislocations, grain boundaries and step edges · Cutting-edge fundamental research: Applied to high-level fundamental research projects in physics and materials science fields |
Multi-functional Extended Atomic Force Microscope(AFM-MF) | Based on conventional morphological imaging, it integrates the testing capabilities of multiple physical quantities and is suitable for multi-dimensional analysis of material properties. | · Supports advanced modes such as force spectroscopy and phase imaging · Expandable test modules related to electricity, magnetism and mechanics are available · Modular design facilitates functional upgrades in later stages The software supports synchronous acquisition and analysis of multi-channel data | · Nanomechanical Testing: Measuring the elastic modulus and adhesion force of polymers and thin-film materials · Functional Materials Research: Conducting multi-parameter analysis on composite materials and functional coatings · Local Device Analysis: Investigating performance differences across various regions on the surface of micro-nano devices · Interdisciplinary Research: Comprehensive characterization experiments covering materials, electronics, energy and other fields |
Atomic Force Microscope for Biological and Liquid Environments(AFM-Bio) | Designed specifically for biological samples and liquid environments, it is suitable for nanoscale characterization of soft matter as well as living or quasi-living samples. | · Support liquid cell and liquid imaging · Low-force scanning to reduce sample damage · Optimized probe control and feedback system · Suitable for soft samples and biological materials | · Observation of cell surface morphology: Analyze the nanostructural characteristics of cell membranes · Research on biomacromolecules: Observe the morphology of biomolecules such as proteins and DNA · Mechanical research on biological membranes: Study the flexibility and mechanical response of biological membranes · Life science laboratory: Applied in research related to biophysics and biomaterials |
Atomic Force Microscope for Teaching and Basic Experiments(AFM-Edu) | Designed for university teaching and basic experiments, featuring intuitive structure, simple operation and high safety. | · Simple structure and stable system · Standardized operation procedures · Suitable for repeated teaching demonstrations Low maintenance cost | · Undergraduate and postgraduate teaching: nanotechnology, experimental courses in surface science · Basic experimental training: instruction on AFM imaging principles and operation methods · Teaching demonstration experiments: demonstration of surface morphological characteristics at the nanoscale · Experimental Teaching Center: long-term and stable configuration of teaching equipment |
Schematic Diagram of Equipment Working Principle

Data chart


Appearance drawing


Company Address:
Huai'an (Headquarters): No. 7, Meigao Road, Qingpu Industrial Park, Qingjiangpu District, Huai'an City, Jiangsu Province
Suzhou: 4th Floor, Building D, China-Netherlands Innovation Harbor, No. 588 Xiangrong Road, Beihejing Sub-district, Xiangcheng District, Suzhou City, Jiangsu Province
Email:service@abner-nano.com
Contact Number: 13327968688 Mr. Yan

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