Integrated instruments

Use the Moku Time & Frequency Analyzer to count, timestamp, and analyze events on multiple channels, all with low RMS jitter. Replace your frequency counter, event counter, photon counter, and more with one versatile instrument.

The only Spectrum Analyzer that spans from 2 GHz all the way down to true DC. Observe input signals in the frequency domain with an ultra-low noise floor and a resolution bandwidth as low as 618.5 mHz.

The Moku Phasemeter is optimized to provide metrology-grade phase measurements. Measure phase, frequency, and amplitude with sub-µradian precision using a digital phase-locked loop architecture with exceptional dynamic range and zero dead time.

The highest-resolution 2 GHz Oscilloscope. Use up to eight channels at 5 GSa/s with ultra-low input noise achieved through patented ADC blending.

Use up to 16 digital I/O channels, or nine analog channels with configurable threshold sampling rates at up to 5 GSa/s for protocol analysis and pattern generation. Deploy it alongside additional Moku instruments for mixed-signal device characterization in one reconfigurable platform.

Perform dual-phase demodulation up to 2 GHz with an excellent dynamic reserve. With an easy-to-use interface, and a leading cost-per-channel in all classes, the Moku Lock-in Amplifier adapts to the evolving demands of cutting-edge scientific experiments.

Perform multi-channel Bode analysis with up to eight inputs and outputs, including differential or ratiometric measurements. Quickly measure the frequency response or transfer function of a device under test with industry-leading noise performance and bandwidth.

Log data directly to an SD card, a networked disk, or internal memory with sampling rates of up to 10 MSa/s. On Moku:Delta, blended ADC technology reduces input noise to < 10 nV / √Hz, providing ultra-low-noise data logging from acoustic to RF frequencies with an integrated 1 TB SSD.

Generate up to eight independent, phase-synchronized waveforms, with a maximum bandwidth of 2 GHz. Select between common waveform types and apply phase, frequency, amplitude, or pulse-width modulation to internally or externally generated signals.

Generate custom waveforms with sample rates of up to 5 GSa/s. For maximum flexibility to generate truly arbitrary waveforms, load waveforms from a file or input them as piece-wise mathematical functions with up to 32 segments.

Quickly and precisely lock your laser with this complete, FPGA-based laser locking system. It replaces multiple separate components with a single, easy-to-use device, reducing distortion and insertion loss while simplifying the locking process.

Design and implement finite impulse response (FIR) filters in the frequency or time domain. Select between predefined frequency response shapes, impulse responses, and window functions. Fine-tune in real time using intuitive visualization and control.

Reduce feedback loop complexity with monitoring, control, and data logging integrated into a single instrument. A user-friendly graphical interface simplifies parameter adjustment and offers real-time monitoring of the transfer function to optimize your experiment.

Interactively design and generate a range of infinite impulse response (IIR) filters. Select from lowpass, highpass, bandpass, and bandstop filter shapes with up to eight fully configurable filter types, including Butterworth, Chebyshev, and elliptic.

The Real-Time Math block enables real-time mathematical processing of signals within Multi-Instrument Mode. Combine signals across channels and chain arithmetic operations through configurable processing stages, without writing FPGA code.

The AI-enabled instrument creation platform that turns natural language prompts into validated, customized test instruments running on hardware. Prompt, build, validate, and deploy to Moku devices.

Connect multiple software-defined instruments to build powerful signal processing pipelines with the ability to dynamically swap instruments on the fly — and monitor the performance of each instrument in its own dedicated window for a true bird’s-eye view of your experiment.

The only FPGA-based neural network integrated into a full suite of test and measurement instruments. Run real-time, powerful machine learning algorithms in line with your experimental setups using Moku. Build and train models using Python, then deploy to your test systems using your Moku device to achieve low-latency inference and react quickly to changing experimental conditions.