Case studies

High-speed, low-cost photon counting single-pixel imaging

Learn how one research team is using the Moku Time & Frequency Analyzer to decode single-pixel imaging data

Featuring: Time & Frequency Analyzer, Moku:Pro

Date: February 18, 2024
Making simple, precise optical fiber measurements with Moku

Learn how researchers at Amsterdam UMC leverage the Moku Phasemeter to streamline their optical fiber measurements while reducing costs

Featuring: Phasemeter, Moku:Lab

Date: January 15, 2025
Australian Synchrotron Spectrum Analyzer Moku:Pro QtEpics
Australian Synchrotron embraces flexible, reconfigurable instrumentation for EPICS-controlled experiments

Learn how researchers are using the Moku Python API to control a range of experiments from a single EPICS interface

Featuring: Moku:Pro, Python, Oscilloscope

Date: January 9, 2025
Using an FPGA-based lock-in amplifier for research
Locking coupled photonic cavities with higher-order derivatives and digital feedback control

Learn how reconfigurable instrumentation has helped researchers achieve new levels of precision in coupled cavity experiments

Featuring: Moku:Pro, Moku:Go, Laser Lock Box, Oscilloscope, Arbitrary Waveform Generator, Digital Filter Box, PID Controller, Multi-instrument Mode

Date: January 7, 2025
Moku:Lab on an optical table
Optimizing bidirectionally mode-locked fiber lasers with Moku:Lab

Learn how CU Boulder researchers are advancing LiDAR and remote sensing applications with a single-cavity, dual-comb laser source

Featuring: Moku:Lab, Lock-in Amplifier, Waveform Generator, PID Controller

Date: October 3, 2024
optical experiment
Enabling rapid and precise distance measurement with Moku:Lab

Learn how researchers in China are using flexible, FPGA-based instrumentation to lock a diode laser to an optical frequency comb

Featuring: Moku:Pro, Laser Lock Box

Date: July 19, 2024
Figure 3: MEMS and Moku:Pro workflow: The Lock-in Amplifier in Slot 2 detects the Feedback signal amplitude A, which is then routed to a PID Controller in Slot 3 to produce the control signal. Subsequently, this control signal is mixed with the phase-locked unit amplitude signal in the Lock-in Amplifier in Slot 4. This process controls the Drive signal’s amplitude to stabilize the amplitude of the resonating mass in the MEMS device. Additionally, Slot 1 hosts an extra Lock-in Amplifier tasked with monitoring the response of the Sensing signal.
MEMS resonance tracking and amplitude stabilization with Moku:Pro

Learn how researchers at Southeast University in China are streamlining MEMS control and test processes

Featuring: Moku:Pro, Lock-in Amplifier, PID Controller

Date: July 5, 2024
Hong-Ou-Mandel setup
Developing low-power, high-precision microscopes with Moku:Go

Learn how reconfigurable instrumentation is helping researchers advance HOM microscopy with agility and speed

Featuring: Moku:Go, Oscilloscope, PID Controller

Date: April 08, 2024
Allan deviation results with a sampling rate limited to 1 Hz used for oscillator characterization
Using Allan deviation to drive oscillator characterization with Moku:Go

Learn how an FPGA-based approach is helping one researcher capture long-term oscillator stability measurements

Featuring: Waveform Generator, Phasemeter, Moku:Go

Date: March 13, 2024
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