The study of first-order structural transformations has been of great interest to scientists in
many disciplines. Expectations from phase-transition theory are that the system fluctuates …

Temperature measurement at the nanoscale is of paramount importance in the fields of
nanoscience and nanotechnology, and calls for the development of versatile, high …

This paper summarises recent developments in in situ TEM instrumentation and operation
conditions. The focus of the discussion is on demonstrating how improved understanding of …

The emergence of magnetic skyrmions, topological spin textures, has aroused tremendous
interest in studying the rich physics related to their topology. While skyrmions promise high …

Experimental study of the atomic mechanism in melting and freezing processes remains a
formidable challenge. We report herein on a unique material system that allows for in situ …

One of the biggest challenges for in situ heating transmission electron microscopy (TEM)
and scanning transmission electron microscopy (STEM) is the ability to measure the local …

Scanning transmission electron microscopy (STEM) thermometry techniques offer the
potential for mapping temperature (T) with high spatial resolution. Existing STEM …

Transmission electron microscopy (TEM) is arguably the most important tool for atomic‐
scale material characterization. A significant portion of the energy of transmitted electrons is …

Conventional in situ transmission electron microscopy (TEM) enables the atomic-scale study
of dynamic materials processes on millisecond time scales. Specimen holders capable of …

If you are asking 'why do we want to do in-situ microscopy?'you should probably skip this
chapter for now. The purpose of the chapter is to show you the potential of this type of …