Liquid Instruments Moku:Lab Reconfigurable Hardware Platforms
Liquid Instruments Moku:Lab Reconfigurable Hardware Platforms combines the digital signal processing power of an FPGA with versatile analog inputs and outputs for engineering and research applications. These devices feature five or twelve instruments (depending on the model). The analog front-end is designed for maximum versatility. Two 500MSa/s inputs can be configured for AC or DC coupling, 50Ω or 1MΩ impedance, and an input voltage range of 1Vpp or 10Vpp. Moku:Lab also features two 1GSa/s outputs with 300MHz anti-aliasing filters, allowing the generation of two high-precision waveforms while measuring on the inputs.
Moku:Lab features an ultra-stable internal oscillator with better than 500ppb accuracy and 10MHz input and output references for synchronization with external timebases. A dedicated DC to 5MHz external trigger input is designed for TTL (1.8V to 5V) voltages. Some instruments use Moku:Lab’s analog inputs as high-precision external triggers, giving more control over the system’s trigger settings. Liquid Instruments Moku:Lab Reconfigurable Hardware Platforms offers Wi-Fi, Ethernet, or USB connection for easy control in congested environments.
Features
- 5x or 12x instruments (depending on model)
Applications
- 200MHz lock-in amplifier
- Pump-probe/ultrafast spectroscopy
- Laser scanning microscopy (SRS, TA, etc)
- Magnetic sensing (magneto-optical Kerr effect)
- Laser frequency stabilization
- 250MHz waveform generator
- Signal simulation
- Laser scanning microscopy
- Circuit design and characterization
- System synchronization
- Clock source
- DAC/op-amp characterization
- 250MHz spectrum analyzer
- Frequency domain analysis
- System response characterization
- Noise measurement
- RF system design
- Spurious signal identification
- 300MHz arbitrary waveform generator
- Random pattern scanning
- System response simulation
- Additive manufacturing
- Quantum optics
- PID controller
- Feedback and control system design
- Laser frequency stabilization
- Temperature regulation
- Scan heads/sample stage positioning
- Pressure, force, flow rate, and other controls
- Laser lockbox for PDH technique
- Pound-Drever-Hall technique
- Precision spectroscopy
- Gravitational-wave detection
- Custom phase-locked loop
- Other closed-loop control systems
- 200MHz oscilloscope
- Signal monitoring and analysis
- Circuit design and characterization
- Jitter/clock analysis
- Photodetector alignment
- Automated system test
- System test and debug
- 200MHz phasemeter
- Oscillator analysis
- Optical/ultrasound ranging
- Gravitational-wave detection
- Interferometry
- Phase-locked loop
- Digital filter box
- System design
- Closed-loop control
- Noise filtering
- Signal amplification
- 120MHz frequency response analyzer
- Impedance measurement
- Capacitance/inductance measurement
- Stability analysis
- Power supply analysis
- EMI filter characterization
- 1MSa/s data logger
- Temperature monitoring
- Vibration analysis
- Environment monitoring
- Other sensor data recording
- FIR filter builder
- Impulse response simulation
- DSP system design
- Noise filtering
- Signal amplification
Specifications
- Analog inputs
- 2-channel
- 200MHz bandwidth (-3dB) into 50Ω
- 500MSa/s per channel
- 12-bit resolution
- 10V maximum into 50Ω with 20dB attenuation
- 50Ω/1MΩ input impedance
- AC/DC input coupling
- AC coupling corner (-3dB)
- 100Hz into 50Ω
- 30Hz into 1MΩ
- BNC connector
- Analog outputs
- 2-channel
- >300MHz bandwidth (-3dB)
- 1GSa/s per channel sampling rate
- 16-bit resolution
- 2V into 50Ω
- 50Ω output impedance
- DC output coupling
- BNC connector
- External trigger input
- TTL compatible trigger waveform
- DC to 5MHz trigger bandwidth
- Hi-Z trigger impedance
- 1.8V to 5V trigger level
- BNC connector
- 20W typical power consumption, 30W when charging the USB
- 100V to 240V power voltage range, 50/60Hz
- ø8.66" x 1.70" in dimension
- Kensington lock compatible
- Clock reference
- Onboard clock
- 10MHz frequency
- <500ppb stability
- 10MHz reference input
- Sine/square waveforms
- 10MHz ±250kHz frequency
- ±10dBm input range
- BNC connector
- 10MHz reference output
- Square waveform
- 10MHz output frequency
- -3dBm output level
- BNC connector
- Onboard clock
- Temperature ranges
- 0 to +45°C operating
- -10°C to +60°C storage
- Connectivity
- 2x BNC analog inputs
- 2x BNC analog outputs
- Network
- 10/100 Base-T Ethernet
- Wi-Fi 802.11 b/g/n
- Micro-USB data port
- Type-A USB charge port
- 16GB class 10 SD card supplied
- 1x BNC external trigger input
- 1x BNC 10MHz clock reference input
- 1x BNC 10MHz clock reference output
- 12VDC power module supplied
Diagram
Application Notes
- EMI Filter Insertion Loss - Measuring with Moku:Lab's Frequency Response Analyzer
- Factory Resetting Moku:Lab - A Guide to Restoring Moku:Lab's Original Factory Settings
- Impedance Measurements - A Guide to Measuring Impedance with Moku:Lab's Frequency Response Analyzer (Part 1)
- Impedance Measurements - A Guide to Measuring Impedance with Moku:Lab's Frequency Response Analyzer (Inductance Part 2)
- Introduction to Moku:Lab's Spectrum Analyzer - A Familiarization Guide
- Introduction to Oscilloscopes - An Oscilloscope Familiarization Guide
- iPad App Touch Points - A Guide to Enabling Screen Touch Points with Moku:Lab's iPad App
- Laser Frequency Offset Locking - An FPGA-Based, 4-Channel Phasemeter for Optical Phase-Locked Loop (OPLL)
- Lock-In Amplifier Configuration Guide - Step-by-Step Tutorial on How to Set Up Moku:Lab's Lock-In Amplifier
- Lock-In Amplifier (LIA) Frequency Sweep with LabVIEW - A Programming Tutorial
- Measuring Allan Deviation - A Guide to Allan Deviation with Moku:Lab's Phasemeter
- Moku:Lab's Arbitrary Waveform Generator - Dual-Channel Synchronized Pattern Generation for 2D Arbitrary Beam Steering
- Moku:Lab Data Logging - Using the Data Logger to Capture High Speed Mechanical Impact
- Moku:Lab's Laser Lock Box - Implementing a Pound-Drever-Hall Laser Locking System
- Moku:Lab and MATLAB - Using the Arbitrary Waveform Generator with MATLAB
- Moku:Lab Network Status - A Guide to Understanding Moku:Lab's LED Network Status Indicators
- PDH Technique with Moku:Lab's Laser lock Box - An FPGA-Based All-in-One Solution for Laser Frequency Locking
- Power Supply Stability - Analysis with Moku:Lab's Frequency Response Analyzer
- Stimulated Raman Scattering Microsopy - Using Moku:Lab's Lock-in Amplifier
- Using Moku:Lab via USB - A Guide to Connecting to Moku:Lab without Wi-Fi or Ethernet
Articles
- Fourier Transform Spectrometer Based on High-Repetition-Rate Mid-Infrared Supercontinuum Sources for Trace Gas Detection
- Investigation and Mitigation of Noise Contributions in a Compact Heterodyne Interferometer
- Pulsed-Pump Phosphorus-Doped Fiber Raman Amplifier Around 1260nm for Applications in Quantum Non-Linear Optics
- Sensitive Multi-Species Trace Gas Sensor Based on a High Repetition Rate Mid-Infrared Supercontinuum Source
- Sub-100nm Precision Distance Measurement by Means of All-Fiber Photonic Microwave Mixing
Related Solutions
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Simplifies Bode analysis by measuring the frequency response of systems in both magnitude in phase.
Veröffentlichungsdatum: 2021-11-01
| Aktualisiert: 2023-04-26