NT21XHWO
Brand: Park Systems
Category: Atomic Force Microscopes
Industry: Life Science and Biotechnology, Academia, Semiconductors, Material Science & Chemistry, Paint, Pigments & Polymers
Accessible nanometrology for academic research
The Park NX7 Atomic Force Microscope (AFM) is a compact, high-performance solution designed to make nanoscale research more accessible without compromising accuracy. Its space-saving tabletop design makes it an ideal choice for universities, research institutes, and laboratories with limited space, while still delivering the precision and stability expected from advanced AFM systems.
At the heart of the NX7 are Park Systems’ proprietary orthogonal scan system and True Non-contact™ mode. These proven technologies significantly reduce lateral motion artifacts and protect both the probe tip and sample surface. The result is clean, artifact-free, high-resolution imaging—even when working with delicate, soft, or complex materials.
The orthogonal scan architecture ensures precise separation of XY and Z movements, improving measurement accuracy and surface characterization reliability. True Non-contact™ mode enables stable, non-destructive imaging, making the NX7 especially suitable for sensitive samples in materials science, polymers, nanotechnology, and bioengineering research.
Combining compact design, user-friendly operation, and advanced AFM technology, the Park NX7 delivers consistent, dependable nanoscale metrology. It is a trusted platform for laboratories seeking high-resolution surface analysis in an efficient and space-conscious format.
| Application Images | Description | Scanning Conditions |
|
Few layers of MnBi₂Te₄: 2D Materials
Few-layer MnBi₂Te₄ (MBT), a material of interest in 2D materials research and topological insulators, was characterized in True Non-contact mode. The scan image reveals the layered surface topography with a peak-to-valley height of about 85.9 nm. |
- System: NX7 • Sample courtesy: School of physical and mathematical sciences, Nanyang Technological University, Singapore |
|
| Adenovirus with DNA bundle: Biological Materials The adenovirus sample with a DNA bundle was characterized in True Non-contact mode. The scan image reveals the viral particle and associated DNA structures with a peak-to-valley height of about 24.5 nm. |
- System: NX7 - Scan Mode: True Non-contact™ mode - Scan Rate: 1.87 Hz - Scan Size: 1 µm × 1 µm - Pixel Size: 256 × 256 pixels - Peak-to-valley: 24.5 nm |
|
| Polyvinylidene fluoride (PVDF): Polymers The surface of PVDF beads dissolved by chloroform was imaged in True Non-contact mode. The scan image reveals nanoscale surface features with a peak-to-valley height of about 238.7 nm. |
- System: NX7 - Scan Mode: True Non-contact™ mode - Scan Rate: 1 Hz - Scan Size: 10 µm × 10 µm - Pixel Size: 512 × 512 pixels - Peak-to-valley: 238.7 nm |
|
| Graphene on hBN: 2D Materials Graphene on hexagonal boron nitride (hBN), a widely studied 2D heterostructure, was characterized using Conductive AFM (C-AFM). The current image reveals a Moiré pattern, with a peak-to-valley value of about 52.7 nA. |
- System: NX7 - Scan Mode: Conductive AFM (C-AFM), (Channel: Current) - Scan Rate: 20 Hz - Scan Size: 50 nm × 50 nm - Pixel Size: 512 × 512 pixels - Peak-to-valley: 52.7 nA |
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