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If you work in materials science, nanotechnology, semiconductor R&D, or advanced surface analysis, you’ve probably come across the term In-situ AFM. However, it is still misunderstood by many what it really means, or what it can open up to their research or product development.
It is good to begin by defining it before getting down to its uses.
In-situ Atomic Force Microscopy refers to a method where the AFM continuously monitors a sample during a physical, chemical, electrical, or mechanical process, not after it. In-situ AFM provides real-time nanoscale dynamics unlike the traditional AFM, which provides a snapshot at a single point in time, allowing the researcher to observe transformation in real-time.
This capability is becoming essential for industries working with:
And as demand rises, brands like Molecular Imaging are being approached by laboratories, academic institutions, and product developers who need custom-built or optimized systems to handle these advanced conditions.
Today’s researchers need more than static imaging; they need insight into dynamic behaviour. Whether you are part of a university lab or a product engineering team, in-situ analysis offers three major advantages:
You’re no longer guessing how materials react under stress. You’re watching the process unfold with nanometer precision.
Seeing changes as they happen eliminates the usual back-and-forth between preparation, imaging, and testing.
In-situ data supports more accurate simulations and product reliability calculations, critical for industries like electronics and energy storage.
This is exactly why many professionals now seek specialized systems or upgrade solutions, making Molecular Imaging a trusted partner for customised AFM product development.
The AFM market has been increasing at a high rate. Established companies in the Atomic Force Microscopy business have diverse target markets, starting with simple educational units through to the sophisticated research-oriented platforms. Yet, more and more clients, including industrial laboratories and individual R&D companies, are requiring custom solutions that do not come off the shelf.
This is also why Service AFM and Service Keysight AFM demand has seen a spike. Many teams want:
Molecular Imaging supports all of this, collaborating with research teams to design and build systems that match their experimental goals, not the other way around.
When selecting an In-situ AFM, the following aspects determine the system’s true capability:
Researchers need precise control over conditions such as temperature, humidity, chemical exposure, or electrochemical stimuli. Any variation affects data reliability.
The system needs to be stable and capture dynamic interactions particularly when subjected to mechanical loading or lithiation in batteries.
Since tiny changes make huge differences, sensor quality decides whether the instrument can actually capture live nanoscale behaviour.
In-situ experiments often involve unique geometries or operational stresses. Off-the-shelf stages often fall short, custom-built ones solve this issue.
Data acquisition, live visualisation, and analysis tools must integrate smoothly, especially in complex multi-physics experiments.
This is where the expertise of Molecular Imaging becomes valuable. By working directly with researchers, the team ensures that each AFM system aligns with the technical expectations of the experiment, not with mass-market limitations.
Even the most advanced system needs skilled hands. With Proper AFM Training, researchers are confident in: Interpreting real-time imaging Handling sensitive samples Avoiding tip or surface damage Understanding the effects of physical changes on data Running long-duration in-situ experiments. Molecular Imaging provides training to teams that are moving to advanced in-situ setups to reduce errors in the experiment and obtain reproducible data.
Molecular Imaging specializes in AFM solutions, offering repairs, training, custom products, and expert support for advanced research needs.
The demand for in-situ experimentation is growing. But most commercial AFMs still follow generic design patterns. Molecular Imaging fills the gap by:
If your organisation is exploring product development in nanotechnology, materials science, or applied physics, collaborating with a specialised AFM engineering partner can dramatically strengthen your results.
In-situ AFM is no longer a niche requirement, it’s becoming a core tool for industries aiming to innovate faster and validate performance more accurately. Whether you are a research lab, a university department, an industrial innovation centre, or a technology brand, the move towards real-time nanoscale monitoring is already transforming workflows.
If you’re planning to build a new AFM system, upgrade your current one, or need expert guidance to execute in-situ studies, Molecular Imaging is equipped to support you with tailored solutions that match your scientific goals.