One integrated platform for the most demanding research and engineering applications

Get a quote
Meet Moku:Pro >


Flexible research, faster development, scalable in an instant

Welcome to the next generation of test. Moku:Pro delivers both performance and flexibility through sophisticated FPGA-based architecture, a high-bandwidth, low noise analog front end, and robust networking and storage. All of the instruments you need are available in an instant without compromising performance for flexibility. An innovative hybrid front-end design performs frequency-dependent signal blending from multiple ADCs, delivering exceptional noise performance from acoustic to radio frequencies. With more than 10 instruments on one hardware platform, engineers and researchers can streamline their test benches or even bring the lab home with them.

4 Analog Inputs
4 Analog Inputs
Up to 600 MHz, 5 GSa/s
4 Analog Outputs
Up to 500 MHz, 1.25 GSa/s
High-Speed Onboard Storage
120 GB SSD
Noise Floor
30 nV/√Hz
Clock Stability
0.3 ppm
Input to Output Latency
< 650 ns
Modern Connectivity
WiFi, Ethernet, and USB
FPGA Powered
Xilinx Ultrascale+

Software-enabled hardware

Moku:Pro is the most advanced system from the Moku suite of software defined instrument platforms. Harnessing the power of the FPGA combined with a high-quality analog front-end, Moku:Pro is able to host multiple instruments on a single hardware platform without sacrificing specs or precision. This approach to test equipment makes it possible to scale and expand the scope of research easily. With Moku:Pro, researchers and engineers already have the right tool for the job.

Get a quote


Blended ADCs for industry-leading noise performance

In test and measurement, flexibility has typically demanded tradeoffs in performance. We overcome these tradeoffs by using signals from a 5 GSa/s, 10-bit ADC and a 10 MSa/s, 18-bit ADC in a patented blending scheme to deliver a low noise floor and high dynamic range from 10 Hz to 600 MHz. This is achieved through a digital crossover network consisting of balanced high- and low-pass filters that implement real-time blending of the dual ADC data streams.

Read more about Blended ADC technology

Read more

Moku: Pro

Engineer anywhere

By integrating test bench essentials like an oscilloscope, waveform generator, and more into a single hardware platform, Moku:Pro enables engineering teams to work from home. With a small footprint, low power consumption at 115 W, and a suite of core test instruments, pivoting to remote work has never been easier.

Get a quote

Introducing new features & capabilities

MokuPro: MIM

Optimize your workflow with Multi-instrument Mode

Moku:Pro’s Multi-instrument Mode lets you run multiple instruments at the same time and lets you connect these instruments to each other to build a customized test system.

Instruments running in this mode can be chained together to build sophisticated signal-processing pipelines. For advanced capabilities, drop in custom features designed in Moku Cloud Compile to gain more flexibility than ever before.

Connections to the analog inputs, analog outputs, and adjacent instruments are run-time configurable for instant gratification. Your Moku:Pro is now even more powerful.

Learn more →

Develop and deploy in minutes with Moku Cloud Compile

Access Moku:Pro’s FPGA to implement custom digital signal processing by writing your own VHDL code. This cloud-based tool is accessed directly from a browser, allowing you to develop, compile, and deploy custom algorithms to your Moku:Pro without a single software download.

Exclusively available with Multi-instrument Mode, your custom code is compatible with any of Moku:Pro’s professional-grade instruments.

Learn more →

Get started with Moku:Pro
Frequency Response Analyzer

Moku:Pro Technical Specifications

Analog I/O

Analog inputs

  • Channels 4
  • Bandwidth 600 MHz (up to 2 channels). 300 MHz (up to 4 channels)
  • Sampling rate 5 GSa/s (1 channel), 1.25 GSa/s (4 channels)
  • Resolution  10-bit and 18-bit ADCs with automatic blending
  • Maximum voltage range 40 Vpp
  • Input Impedance 50 Ω or 1 MΩ
  • Input coupling AC or DC
  • AC coupling corner 16 kHz into 50 Ω, 1.6 Hz into 1 MΩ
  • Input voltage noise 30 nV√Hz at 100 Hz
  • Input referred noise 500 μV RMS

Analog outputs

  • Channels 4
  • Bandwidth 500 MHz (± 1 V), 100 MHz (± 5 V)
  • Sampling rate 1.25 GSa/s
  • Resolution 16-bit
  • Voltage Range 10 Vpp into 50 Ω
  • Output impedance 50 Ω
  • Output coupling DC

Features & Accessories

User Interface

  • iPad App
  • Windows and Mac Apps

Programming Environment

  • Python

Additional Ports

  • Ethernet
  • USB-C
  • 10 MHz reference clock in and out

External trigger input

External trigger

  • Trigger waveform TTL compatible
  • Trigger bandwidth DC to 5 MHz
  • Trigger impedance Hi-Z
  • Min trigger level 1.8 V
  • Max trigger level 5 V
  • Connector BNC

Clock reference

On-board clock

  • Frequency 10 MHz
  • Stability < 300 ppb

10 MHz reference input

  • Expected waveforms Sine / square
  • Frequency 10 MHz ± 20 kHz
  • Input range -6 dBm to +10 dBm
  • Connector BNC

10 MHz reference output

  • Waveform type Square
  • Output frequency 10 MHz
  • Output level 6 dBm
  • Connector BNC

Input voltage noise

Input voltage noise describes the noise floor of the analog inputs and is represented as an amplitude spectral density (magnitude of input voltage noise at different frequencies normalized to a 1 Hz bandwidth). Input voltage noise is a key specification for a variety of instruments including lock-in amplifiers, spectrum analyzers, and oscilloscopes as it can limit the signal-to-noise ration (SNR) in weak-signal applications.

In this figure, you can see the noise of 30 nV√Hz at 100 Hz and it remains low across the entire frequency range.

A blending network that compensates for the analog antialiasing filter in the low-speed path with a matching digital low-pass filter in the high-speed path.

Blended ADCs

Our FPGA algorithms automatically and intelligently blend the high-speed and low-speed signals from the 10-bit and 18-bit ADCs to optimize noise performance across the entire frequency range.

Rather than simply focusing on minimizing overall noise, the filtering network is designed in a way that preserves a unity-gain frequency response for the signal.



Moku:Pro Documentation


Getting Started


User Manuals

App Notes

Get started with Moku:Pro

Get a quote
Or view pricing