In this Letter, we discuss the use of photon-induced near field electron microscopy (PINEM) to reach new limits of temporal and spatial resolutions. We invoke two optical femtosecond pulses, one of them is for the usual clocking of dynamical change but the second one is for gating (slicing) the imaging-electron continuous or pulsed beam. It is shown that in both cases the resolution becomes that of the optical gating pulse and not of the electron one. We also show that by using the near field of a nanoparticle it is possible to enhance contrast in imaging of materials and including biological structures
In this paper, we introduce the quantum mechanical approach as a more physically-realistic model to ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...
In this Letter, we discuss the use of photon-induced near field electron microscopy (PINEM) to reach...
Advances in the imaging of biological structures with transmission electron microscopy continue to r...
In materials science and biology, optical near-field microscopies enable spatial resolutions beyond ...
Ultrafast electron microscopy (UEM) is a pivotal tool for imaging of nanoscale structural dynamics w...
In materials science and biology, optical near-field microscopies enable spatial resolutions beyond ...
Ultrafast electron microscopy in the space and time domains utilizes a pulsed electron probe to dire...
The development of four-dimensional ultrafast electron microscopy (4D UEM) has enabled not only obse...
The development of four-dimensional ultrafast electron microscopy (4D UEM) has enabled not only obse...
Electron imaging in space and time is achieved in microscopy with timed (near relativistic) electron...
Electron imaging in space and time is achieved in microscopy with timed (near relativistic) electron...
The vision to develop 4D electron microscopy, a union of the capabilities of electron microscopy wit...
In this paper, we introduce the quantum mechanical approach as a more physically-realistic model to ...
In this paper, we introduce the quantum mechanical approach as a more physically-realistic model to ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...
In this Letter, we discuss the use of photon-induced near field electron microscopy (PINEM) to reach...
Advances in the imaging of biological structures with transmission electron microscopy continue to r...
In materials science and biology, optical near-field microscopies enable spatial resolutions beyond ...
Ultrafast electron microscopy (UEM) is a pivotal tool for imaging of nanoscale structural dynamics w...
In materials science and biology, optical near-field microscopies enable spatial resolutions beyond ...
Ultrafast electron microscopy in the space and time domains utilizes a pulsed electron probe to dire...
The development of four-dimensional ultrafast electron microscopy (4D UEM) has enabled not only obse...
The development of four-dimensional ultrafast electron microscopy (4D UEM) has enabled not only obse...
Electron imaging in space and time is achieved in microscopy with timed (near relativistic) electron...
Electron imaging in space and time is achieved in microscopy with timed (near relativistic) electron...
The vision to develop 4D electron microscopy, a union of the capabilities of electron microscopy wit...
In this paper, we introduce the quantum mechanical approach as a more physically-realistic model to ...
In this paper, we introduce the quantum mechanical approach as a more physically-realistic model to ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...
Enhanced image contrast has been seen at graphene-layered steps a few nanometers in height by means ...