Supporting Material

The MIM setup on Moku:Pro for testing the linear dynamic range of different phase detectors
Application notes
Phase detection with the Moku Lock-in Amplifier and Phasemeter

Master precise phase detection with the Moku Lock-in Amplifier and Phasemeter

Featuring: Moku:Pro, Phasemeter, Lock-in Amplifier

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
Join our webinar with Optica and learn new ways to improve SNR measurements with an FPGA-based boxcar averager
Webinars
Improving the SNR of low-duty-cycle signals with a boxcar averager

Date Recorded: February 13, 2025

Speaker: Laura Becerra
Join our webinar
Webinars
How to optimize time interval measurements without compromising cost or flexibility

Date Recorded: February 11, 2025

Speaker: Ben Nizette, Jason Ball
Autoencoder vs matched filter results
White papers
Using a neural network to de-noise pulsed data

Learn how to configure Multi-instrument Mode with the Neural Network to simulate, collect, and analyze pulsed waveforms.

Featuring: Moku:Pro, Neural Network, Data Logger, Waveform Generator, Multi-instrument Mode

Date: 12/17/2024
Australian Synchrotron Spectrum Analyzer Moku:Pro QtEpics
Case studies
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
Case studies
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
he sum of all enabled stages (dotted lines) gives the overall controller response (solid line). Integrator and differentiator saturation levels are indicated using dashed lines. User-defined parameters define the relative magnitude of the various contributions.
Application notes
PID Controllers: Frequency-Domain Models & Applications

Part 6: PID controllers. Understanding PID parameters and modeling digital PID controller instrumentation

Featuring: PID Controller

Application notes
Understanding actuator saturation in control systems

Part 5: Troubleshooting the effects of saturation over a wide range of frequencies

Featuring: PID Controller, Laser Lock Box

Application notes
Loop shaping: frequency domain tuning

Part 4: Learn to tune the controller transfer function to modify an open-loop transfer function

Featuring: PID Controller, Frequency Response Analyzer

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