Single-frequency, 100 ps amplified (MOPA) microchip laser with dual-wavelength emission at 532 nm and 1064 nm.
High power, narrow linewidth and tunable repetition rate for research and sensing applications.
Pulse duration and repetition rate can be configured to integration requirements.
Delivers picosecond pulses down to 50 ps. Standard pulse durations: 50 ps, 100 ps, 200 ps with custom engineering available, extendable to a single-frequency nanosecond configuration (up to 1 ns) where required. Ensures high temporal precision and minimal thermal load. ~10% difference in pulse duration between 532 nm and 1064 nm.
Stable, single-frequency emission at 532.2 nm and 1064.4 nm. Matched timing for both wavelengths with external trigger available.
Pulse energies up to 3 µJ and >40 kW peak power at 532 nm and up to 5 µJ and > 50 kW at 1064 nm. Smooth electronic power control with options for wavelength independent power tuning.
Stable, single-frequency spectrum with < 0.06 nm linewidth at both wavelengths. Provides excellent spectral stability and mode-hop free emission. Central frequency can be factory set according to preference.
Integrated control electronics with low-jitter optical trigger-out for precise output pulse timing. Optional TTL trigger-in available for active pulse control.
Stable output with M² < 1.3, available in free-space or fiber-coupled formats. Supports precise focusing and long-distance propagation.
CP2L's built-in, synchronized 532 nm and 1064 nm pulses — with matched timing and external trigger control — open up experiments that a single-wavelength source can't support on its own.
Use one wavelength to excite a sample and the other, precisely delayed, to probe the resulting change — well suited to nanosecond-scale kinetics, intermediate-state lifetimes, and other slower photoinduced dynamics. Note: temporal resolution is set by pulse duration (50–200 ps).
Pairing 532 nm excitation with a synchronized 1064 nm channel lets instrument builders combine strong visible-wavelength Raman efficiency with an NIR reference or fluorescence-discrimination channel in a single, timing-matched system. See our Time-Resolved Raman Spectroscopy application page for more information.
Differential, two-wavelength techniques — such as ratiometric or differential-absorption sensing — use a synchronized on/off-target wavelength pair to cancel common-mode noise and isolate a target signal, improving measurement robustness in the field.
The dual-color output can also serve as a starting point for nonlinear-optics experiments and custom frequency-conversion setups, enabling generation of UV bandwidths as well as extended white-light ranges.
Wavelength, pulse duration (from 50 ps), pulse energy and repetition rate are configurable to your requirements — whether that’s a single research unit or integration into a product. Tell us what you need.
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