Time Tagger Series
The world’s most powerful digital data acquisition tools
Encounter the power of Software Defined Digital Data Acquisition
Create versatile experiment setups
Control your measurements with a modern web application
The Time Tagger Series brings the power of software defined data acquisition to your lab. It is an incredibly flexible time-to-digital converter equipped with a streaming architecture and a versatile software engine. You can use it for almost any type of digital data acquisition measurement, including various flavors of time correlated photon counting.
Key hardware features
l time resolution down to 12 ps (RMS jitter)
l 8 or 18 fully equivalent input channels, up to 144 in sync mode
l detect rising and falling edges
l benefit from a built-in logic analyzer
Key software features
l auto-correlation, cross-correlation, multiple-start-multiple-stop histograms
l run various measurements simultaneously
l implement your research ideas in no time: benefit from virtual channels, such as sums and coincidences
l work with a modern web-application, native libraries in C++, C#, .net, Matlab, LabVIEW, Python, Windows 7 & 10 (32 & 64 bit), Linux upon request
Benefit from Swabian Instruments’ Time Taggers for your cutting edge research including:
Cold atoms, Ions, EIT Fluorescence Lifetime Pulsed Lasers
l time correlated photon counting, fluorescence lifetime imaging, anti-bunching
l linear optics quantum computing, quantum process tomography
l scanning fluorescence microscopy, PALM, STORM, STED
l cold atoms, EIT, Rydberg atoms
l cold ions and ion trap quantum computing
l quantum dots
l solid state quantum optics
Scanning fluorescence microscopy redefined
The figure below shows an example of a versatile and extendable scanning fluorescence microscopy system built around a single Time Tagger 20. This system enables you not only to measure photon anti-bunching and fluorescence lifetime / FLIM, you can use it in a straight forward fashion to acquire confocal images, electron spin resonance sweeps, pulsed electron spin resonance, and any combination of the latter. And even more: you can easily extend the system to superresolution optical imaging e.g. using STED or PALM all just with one single Time Tagger 20. Such microscopy systems are used for research on defects in diamond and SiC, e.g. at the University of Stuttgart (Germany), University of Munich (Germany), University of Oxford (UK) and MIT (USA).
Simply hook up all your raw signals to the Time Tagger 20 and you are ready to perform a wealth of experiments.
 S.Y. Lee, M. Widmann, T. Rendler, M.W. Doherty, T.M. Babinec, S. Yang, M. Eyer, P. Siyushev, B.J.M. Hausmann, M. Loncar, Z. Bodrog, A. Gali, N.B. Manson, H. Fedder and J. Wrachtrup, “Readout and control of a single nuclear spin with a metastable electron spin ancilla.” Nature nano. 8, 487-492 (2013)
 N. Zhao, J. Honert, B. Schmid, M. Klas, J. Isoya, M. Markham, D. Twittchen, F. Jelezko, R.-B. Liu, H. Fedder and J. Wrachtrup, “Sensing single remote nuclear spins”, Nature nano. 7, 657-662 (2012)
 Luozhou Li, Edward H. Chen, Jiabao Zheng, Sara L. Mouradian, Florian Dolde, Tim Schröder, Sinan Karaveli, Matthew L. Markham, Daniel J. Twitchen, Dirk Englund, “Efficient Photon Collection from a Nitrogen Vacancy Center in a Circular Bullseye Grating” Nano Letters 15, 1493 (2015)
 Y.-C. Chen, P.S. Salter, S. Knauer, L. Weng, A.C. Frangeskou, C.J. Stephen, S.N. Ishmael, P.R. Dolan, S. Johnson, B.L. Green, G.W. Morley, M.E. Newton, J.G. Rarity, M.J. Booth and J.M. Smith, “Laser writing of coherent colour centres in diamond” Nature Photonics (2016)
Implement new research ideas more quickly
Time Tagger 20 is enabling dramatically faster and more parallel digital data acquisition for my group. Its unique streaming architecture allows us to implement novel experiments with rather small coding efforts, thereby enabling us to implement our new research ideas very quickly.
Prof. Dirk Englund MIT, USA January 10, 2017
Very impressed, unrivalled flexibility and excellent value
We have been very impressed with Time Tagger's specifications, unrivalled flexibility of use and excellent value for money. Swabian Instruments deserve considerable recognition not only for this innovative product, but for their user-oriented approach, and for their desire to develop instrumentation that will help to accelerate this field of research.
Prof. Jason Smith Department of Materials, University of Oxford December 14, 2016