
Complete confocal fluorescence microscope that empowers researchers to advance quantitative functional imaging from individual molecules to cells and tissues.

Modular, customizable, time-resolved confocal microscope with single-molecule sensitivity for life and materials science.

Compact FLIM and FCS upgrade kit that adds advanced functional imaging and correlation analysis to existing laser scanning microscopes.

Designed for flexible, sensitive, and precise steady-state and time-resolved spectroscopy across the UV to NIR range and time scales from picoseconds to milliseconds.

Modular lifetime spectrometer designed for flexible fluorescence and photoluminescence measurements in both materials and life science research.

Add spectral and time-resolved photoluminescence to your setup through flexible microscope–spectrometer coupling options.

Get the most out of superconducting nanowire detectors in large-scale quantum communication and computing experiments requiring precise multichannel timing.

Boost your time-resolved experiments with a flexible, high-precision time tagging and TCSPC unit for materials science and quantum sensing.

Scale your photonic quantum computing and detector characterization setups while maintaining performance, flexibility, and high data throughput.

Compact 3-color picosecond laser delivering flexible ns to ms excitation with cost-effective multicolor performance and straightforward operation.

Smart picosecond laser diode heads covering UV-A to NIR, providing the right combination of power, pulse width, and diode type for any time-resolved technique.

VisUV provides clean short pulses and stable timing across key UV and visible wavelengths, including deep UV lines as well as 488 nm and 532 nm.

Enhance your single-photon counting experiments with wide dynamic range and excellent timing precision in the UV and visible even at the highest count rates.

Capture even the weakest signals over large areas with maximum dynamic range and enhanced low-light sensitivity in a compact detector design.

Unlock spatially resolved single-photon detection with a 23-pixel SPAD array, combining low dark counts and precise time tagging for advanced experiments.

Advanced FLIM analysis software for fast, accurate interpretation of lifetime imaging data.

Intuitive, free software solution for real-time, high-precision photon data acquisition, visualization, and initial data analysis.

Advanced software for time-resolved fluorescence acquisition and analysis.

An imaging technique that uses fluorescence lifetimes to generate image contrast.

Investigating how proteins dynamically explore multiple conformational states that control biological function.

Investigating how biomolecules separate into dynamic liquid phases to organize cellular space and regulate biological function.

A time-resolved technique that measures photoluminescence lifetimes to reveal excited-state dynamics in materials.

Studying exciton dynamics, charge carrier processes, and structural properties through optical and time-resolved characterization methods.

Investigating charge-carrier lifetimes and recombination dynamics to enable precise optical characterization of material quality and device performance.

A quantum optical signature revealed by time-resolved photon correlation analysis to identify single-photon emission in materials and nanostructures.

The transmission of information using individual photons, using quantum effects to ensure absolute security.

Quantifying photons per detection event enables direct access to photon-number statistics, providing insight into quantum and statistical properties of light.

An optical technique that analyzes light emission under electrical excitation to reveal electronic properties of electroluminescent materials.

Monitoring environmental signals and trace compounds to understand dynamic changes in natural and engineered environments.

A photon timing technique that measures single-photon arrival times to resolve ultrafast dynamics in fluorescence, materials research, and quantum optics.
| Peltier cooling stability | better than 1 K for ambient temperature between 15 °C and 30 °C |
| With fiber coupling | 76 × 207 mm (diameter × length) |
| 12 hours, Delta T (ambient) < 3 K | 3 % RMS, 5 % peak to peak* |
* Typ. pulse width at highest power setting. The pulse width shortens at lower power settings.
All Information given here is reliable to our best knowledge. However, no responsibility is assumed for possible inaccuracies or omissions. Specifications and external appearances are subject to change without notice.
Taiko PDL M1 picosecond diode laser driver with PLS-I smart LED.The PLS-I Series provides high-power nanosecond pulsed LED sources spanning the UV to visible range from 355 to 600 nm in a compact and maintenance free design. Each LED head delivers short pulse widths, high repetition rates and strong average power in pulsed or CW operation. All parameters are controlled through the Taiko PDL M1, which enables linear mode, free trigger mode and max power mode for precise excitation workflows. This combination of spectral coverage, stable output and flexible timing makes the PLS-I Series ideal for a broad spectrum of research applications.
The PLS-I Series is designed exclusively for the laser driver Taiko PDL M1, creating a next-generation platform for nanosecond excitation. Taiko provides fully calibrated operation, flexible linear and max-power modes, burst capability and intuitive local or remote control. This combination ensures stable, traceable excitation performance and brings LED-based time-resolved workflows onto the same modern driver architecture used for LDH-I laser heads.
High pulsed average power supports efficient excitation in both pulsed and continuous wave operation. Depending on wavelength, average power levels reach up to 300 µW, with typically around 80 µW in pulsed mode and several hundred microwatts in CW operation. At the same time, nanosecond pulse widths down to approximately 1 ns are maintained, with typical values ranging from 1 to 5 ns depending on operating conditions. This combination of output power and temporal control enables reliable excitation intensity while preserving well-defined timing characteristics.
Combine compatible components to build a complete system tailored to your experimental requirements and measurement workflows.
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