FlexAFM and nanomotion sensing unveil cellular responses, offering new insights into bacterial behavior and potential ...
The ultimate tool for nanoscale research from biological molecules to advanced new materials.
The versatile mid-range research AFM that grows with your demands in modes and accessories.
A compact affordable research AFM that is astoundingly easy to use, with more than 30 modes and options.
Fastest reliable sub-Angstrom surface roughness metrology.
Measure roughness and other material properties of heavy and large samples up to 300 mm and 45 kg.
For unique requirements, we will design a bespoke AFM solution, leveraging our decades of engineering expertise.
Slide an AFM onto your upright optical microscope turret for a leap in resolution.
One of the smallest ever AFMs, created for integration into custom stages or existing setups.
A flexibly mountable research-grade scan head for integration into custom stages or existing set ups.
Dive into the fascinating world of neuromorphic computing and discover how artificial spin ice structures are revolutionizing the way we think about computation. This application note offers an in-depth exploration of magnetization in artificial spin ice under varying magnetic fields.
Neuromorphic Computing: Understand the shift from traditional bi-state logic elements to hardware that mimics the brain's behavior using analog signals, offering potential for energy and time savings.
Artificial Spin Ice: Learn about this unique material where magnetization is patterned onto nanostructures, creating a platform that can potentially combine memory and computation.
Nanosurf's VMFSH: Discover how Nanosurf's variable magnetic field sample holder (VMFSH) allows for precise AFM measurements in variable magnetic fields, crucial for imaging magnetic samples.
Experiment with Permalloy: Delve into the study of patterned Permalloy (Ni80Fe20) and its unique Penrose pattern, which lacks translational symmetry.
Magnetic Field Evolution: Observe how magnetization evolves as a function of applied field, revealing insights into domain wall pinning, local energy landscapes, and the effects of lattice and field interactions.
Practical Implications: Understand how understanding the behavior of artificial spin ice can lead to fine-tuning lattice designs for practical applications in neuromorphic computing.
23.06.2026
FlexAFM and nanomotion sensing unveil cellular responses, offering new insights into bacterial behavior and potential ...
27.05.2026
Explore Alejandro Silhanek’s innovative spintronics research, showcasing how spin waves can be investigated leveraging ...
19.05.2026
A group of young girls from Mayfield school wanted to start a F24 electric car racing team, and Nanosurf decided to ...
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