55 years after Richard Feynman’s famous Caltech lecture ‘There is plenty of room at the bottom’ [1], heralding the age of nano science and technology, many of the possibilities he envisaged have come true: Using electron microscopy it is nowadays possible to resolve and even identify individual atoms; STM and AFM not only provide us with similar spatial resolution on surfaces, but also allow dragging individual atoms around in a controlled way; X-ray diffraction has revealed the complicated structures of thousands of proteins, giving invaluable insight into the machinery of life
We review progress in improving the spatial resolution of atomic force microscopy (AFM) under vacuum...
Despite decades of research, the ultimate goal of nanotechnology—top-down manipulation of individual...
Physicists have long been able to snap atomic-scale pictures by shining a beam of electrons at a tar...
55 years after Richard Feynman’s famous Caltech lecture ‘There is plenty of room at the bottom’ [1],...
The history of twentieth-century microscopy is often told as a transition from imaging with light (f...
University of Minnesota Ph.D. dissertation. November 2015. Major: Material Science and Engineering. ...
Transformative technological advances have propelled cryogenic electron microscopy (cryo-EM) to take...
In the thirty years since atoms were first positioned individually, the atom-moving capability of sc...
John Cowley and his group at Arizona State University pioneered the use of transmission electron mi...
In the past decade, we have witnessed the rapid growth of the field of ultrafast electron microscopy...
Controlling the properties of nanostructures requires a detailed understanding of structure, microst...
haracterizing the structure of a material we are working on is the fundamental starting point for al...
The long held objective of directly observing atomic motions during the defining moments of chemistr...
The transmission electron microscope (TEM) is a powerful tool enabling the visualization of atoms wi...
The long held objective of directly observing atomic motions during the defining moments of chemistr...
We review progress in improving the spatial resolution of atomic force microscopy (AFM) under vacuum...
Despite decades of research, the ultimate goal of nanotechnology—top-down manipulation of individual...
Physicists have long been able to snap atomic-scale pictures by shining a beam of electrons at a tar...
55 years after Richard Feynman’s famous Caltech lecture ‘There is plenty of room at the bottom’ [1],...
The history of twentieth-century microscopy is often told as a transition from imaging with light (f...
University of Minnesota Ph.D. dissertation. November 2015. Major: Material Science and Engineering. ...
Transformative technological advances have propelled cryogenic electron microscopy (cryo-EM) to take...
In the thirty years since atoms were first positioned individually, the atom-moving capability of sc...
John Cowley and his group at Arizona State University pioneered the use of transmission electron mi...
In the past decade, we have witnessed the rapid growth of the field of ultrafast electron microscopy...
Controlling the properties of nanostructures requires a detailed understanding of structure, microst...
haracterizing the structure of a material we are working on is the fundamental starting point for al...
The long held objective of directly observing atomic motions during the defining moments of chemistr...
The transmission electron microscope (TEM) is a powerful tool enabling the visualization of atoms wi...
The long held objective of directly observing atomic motions during the defining moments of chemistr...
We review progress in improving the spatial resolution of atomic force microscopy (AFM) under vacuum...
Despite decades of research, the ultimate goal of nanotechnology—top-down manipulation of individual...
Physicists have long been able to snap atomic-scale pictures by shining a beam of electrons at a tar...