The camera never saw this ghost
Quantum ghost imaging with LINCam: of 244 million photons recorded, the 2 % whose twins passed the mask draw its picture. The software does the rest.
Data courtesy of Duncan Ryan, LANL.
Three instruments,
one photon-counting core
Pick by what you need to measure: where the photon landed, when it arrived, or how many of them there were.
Resolve photons spatially and temporarily at the same time
The solution for scanning-free time correlated single photon counting with megapixel positional resolution combined with 40 ps temporal accuracy.
| Positional resolution | 1000 × 1000px |
|---|---|
| Temporal resolution | 50ps |
Delivers astounding throughput
A time-tagger built for experiments where every event counts and nothing may be dropped.
| Throughput | >375MTags network >970MTags embedded PC |
|---|---|
| Temporal resolution | 4ps |
Counts photons at rates up to 100 MHz and beyond
Photon counting at the rates modern sources demand, in a package that drops into an existing setup.
| Countrates | 100MHz |
|---|---|
| Temporal resolution | 50ps |
Applications
What amazing things our customers do
When the size matters
Large scale FLIM by optical sectioning of rat embryo. Or (sub) cellular resolution with lattice light-sheet method.
Quantum computing
Measurement induced entanglement of stored ions
Stored ions are typical examples for single photon sources that show an antibunched emission statistics. However if two stored ions are brought in an entangled state by simply measuring, interesting phenomena occur.
Spinning Disc
Confocal superresolution FLIM
Microscopy with a spinning disk unit.