Supporting Material

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

Principle of operations guide

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

Application notes
Digitally implementing fractional delays with the FIR Filter Builder

Implement precise delays with software-defined finite impulse response filters with no additional software

Featuring: Moku:Go, FIR Filter Builder

Measuring phase with precision: a guide to phase measurement methodologies
Ebooks
Measuring phase with precision: a guide to phase measurement methodologies

Three ways to measure phase accurately and efficiently

Featuring: Lock-in Amplifier, Oscilloscope, Phasemeter

Date: July 25, 2024
Moku instrument suite with Python in the background
Webinars
Streamlining experimental control stacks with flexible, FPGA-based instrumentation and Python

Date Recorded: July 24, 2024

Speaker: Jason Ball
optical experiment
Case studies
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
Event counting ebook thumbnail
Ebooks
Efficient event counting: four steps to time interval analysis

Tips and strategies for event detection and interval analysis

Featuring: Moku:Pro, Time & Frequency Analyzer

Date: July 18, 2024
Power spectral density measurement on the Moku Phasemeter
Blog
What is power spectral density, and why is it important?

Learn more about the applications, calculation methods, and practical uses of this critical measurement

Featuring: Phasemeter

Date: July 11, 2024
Moku instrument suite with Python in the background
Blog
Getting started with the Moku Python API

Leverage the flexibility of Moku and Python together to run custom scripts for your experimental stack

Featuring: Moku:Pro, Python

Date: July 8, 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.
Case studies
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
PID controller
Blog
High-performance PDH locking with reconfigurable instrumentation: your questions, answered

Learn how to optimize your PDH locking setup, monitor feedback signals, and implement your own custom tools

Featuring: Moku:Pro, Laser Lock Box

Date: June 24, 2024
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