Physical Review X,
Journal Year:
2018,
Volume and Issue:
8(2)
Published: June 8, 2018
A
new
technique
for
time-stamping
bunches
of
electrons
with
terahertz
pulses
allows
the
electron
arrival
time
to
be
recorded
1.5-fs
accuracy,
paving
way
greatly
improved
resolution
in
apparatuses
that
probe
ultrafast,
atomic-scale
processes.
Reviews of Modern Physics,
Journal Year:
2020,
Volume and Issue:
92(2)
Published: June 9, 2020
When
electromagnetic
fields
impinge
on
nanoscale
structured
materials,
optical
field
concentrations
can
occur
that
enhance
the
strength
up
to
2
orders
of
magnitude.
The
strong-field
interaction
physics
enabled
by
these
nano-optical
building
blocks
probes
highly
nonlinear
phenomena
pave
way
toward
unique
matter
such
as
ultrafast
electron
imaging
and
spectroscopy
ultrahigh
frequency
transistor
concepts
are
preludes
light-wave
electronics.
This
article
reviews
fundamentals
applications
phenomena.
Nature Communications,
Journal Year:
2018,
Volume and Issue:
9(1)
Published: July 6, 2018
Light-electron
interaction
in
empty
space
is
the
seminal
ingredient
for
free-electron
lasers
and
also
controlling
electron
beams
to
dynamically
investigate
materials
molecules.
Pushing
coherent
control
of
free
electrons
by
light
unexplored
timescales,
below
attosecond,
would
enable
unprecedented
applications
light-assisted
quantum
circuits
diagnostics
at
extremely
small
such
as
those
governing
intramolecular
electronic
motion
nuclear
phenomena.
We
experimentally
demonstrate
attosecond
manipulation
wave
function
a
transmission
microscope,
show
that
it
can
be
pushed
down
zeptosecond
regime
with
existing
technology.
make
relativistic
pulsed
beam
interact
an
appropriately
synthesized
semi-infinite
field
generated
two
femtosecond
laser
pulses
reflected
surface
mirror
delayed
fractions
optical
cycle.
The
amplitude
phase
resulting
oscillations
states
energymomentum
are
mapped
via
momentum-resolved
ultrafast
energy-loss
spectroscopy.
experimental
results
full
agreement
our
theoretical
framework
light-electron
interaction,
which
predicts
access
timescale
combining
X-ray
fields
electrons.
Physical Review Letters,
Journal Year:
2019,
Volume and Issue:
123(10)
Published: Sept. 6, 2019
This
Letter
sets
a
road
map
towards
an
experimental
realization
of
strong
coupling
between
free
electrons
and
photons
analytically
explores
entanglement
phenomena
that
emerge
in
this
regime.
The
proposed
model
unifies
the
strong-coupling
predictions
with
known
electron-photon
interactions.
Additionally,
predicts
non-Columbic
freely
propagating
electrons.
Since
can
entanglements
photon
pairs
onto
photon-electron
pairs,
it
may
harness
electron
beams
for
quantum
communication,
thus
far
exclusive
to
photons.