Case studies

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
Stuttgart nuclear magnetic resonance experiment setup
Developing novel nuclear magnetic resonance medical imaging techniques

Proving the viability of VCO-based NMR for new advancements in medical imaging at the University of Stuttgart, Germany

Featuring: Moku:Pro, Lock-in Amplifier, Moku Cloud Compile, Waveform Generator, PID Controller

Date: February 27, 2024
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