Maury MW - Programmable Noise Generators - NGX1000 Series
- 5” touch screen display
- Noise output through female N connector
- Ethernet connection for remote control
The NGX1000 programmable noise generator is a high performance, broadband additive white gaussian noise (AWGN) generator in an easy-to-use compact form factor. The streamlined user interface and flat menu structure provides a fast, simple way to add RF noise in a communications system to test reliability, robustness and performance.
All functionality of the generator is accessible through the 5” touch screen or via remote control through an ethernet connection delivering flexible, programmable noise generation for broad use in semiconductor, military, aerospace, satellite, medical and communications applications.
|
Output |
Output Power |
Attenuation |
|---|---|---|
|
White Gaussian noise |
Up to +10 dBm |
127 dB; 0.1 dB step size |
More Product Information
- Precise programming of voltage and current slew rate for sensitive loads.
- Industrial field bus interfaces (Modbus-TCP, Modbus-RTU, Ethernet) enable real-time digital control.
- Built-in power quality monitoring detects and saves input voltage anomalies which can be saved for later diagnostic analysis.
- Programmable analog interface scaling facilitates integrating the ASD FLX with existing systems easily.
- Built-in energy meter calculates the delivered energy throughout a process or period.
- Optional real-time clock enables accurate timestamping of events.
- Support the most high-performance Camera Link cameras with available support for Full and 80-bit mode at up to 85 MHz
- Perform deterministic image acquisition by way of the jitter-free Camera Link 2.1 interface
- Offload host computer of custom image processing using a field-programmable gate array (FPGA) device
- Eliminate missed frames through a PCIe® 2.0 x8 host interface and ample onboard buffering
- Optimize multi-camera applications via support for up to four Base or two Full/80-bit Camera Link cameras per board
- Minimize space requirements and maximize PC compatibility through a half-length design with mini Camera Link connectivity for true single-slot operation
- Improve and simplify system connectivity with Power-overCamera-Link (PoCL) support at extended cable lengths
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High SNR mode (up to 24 dB better signal-to-noise ratio)
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Low-noise binning mode
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Shading correction
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Defect pixel correction
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Area of interest (AOI), separate AOI for auto features
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Binning
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Decimation
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Auto gain (manual gain control: 0 to 24.4 dB)
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Auto exposure (49 µs to 67 s)
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Auto white balance
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Look-up table (LUT)
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Hue, saturation
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Color correction
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Local color anti-aliasing
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Reverse X/Y
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Deferred image transport
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Trigger programmable, level, single, bulk, programmable delay
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Sequence mode (changes the camera settings on the fly)
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SIS (secure image signature, time stamp for trigger, frame count etc.)
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Storable user sets
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Camera and IEEE 1394b cable (other configurations on request)
- 6U, Single Width VME
- Time Code Inputs
- Time Code Output
- 1PPS Pulse Rate Output/Interrupt
- Frequency Outputs (1, 5, 10 MHz)
- External Event Capture/Interrupt
- Programmable Periodic Output/Interrupt
- Programmable Time Strobe Output/Interrupt
The SMP7500 is a 96-channel 300MA open-collector/relay drivers, and the SMP7600A (pictured) and SMP7600A-S-11351 are 5 W programmable loads.
- Available in single and dual pack versions
- Sensor simulation available to provide thermistor, strain gauges, heater loads, and cell bypass/short.
- Battery behavior easily modified via spreadsheet download to simulate any battery topology including Nickel Metal Hydride, Lithium Ion, and Nickel Cadmium
- Flexible Database Operation
- Fully Programmable
- Completely Configurable
- Attention To Spacecraft Safety
- Eliminates the need for test flight batteries and their associated issues
- 8 frequency counter channels, 16 isolated digital I/O channels, 2 isolated DAC channels in a single card
- Single frequency measurement range that works from 0.05 Hz to 1 MHz
- Very stable TCXO base clock, 50 MHz ±1 ppm
- 195 kΩ Input impedance with selectable coupling (AC/DC)
- Wide differential input voltage range (±48 V) with up to 250 V working common mode voltage
- Programmable threshold and hysteresis levels with 1 mV resolution
- Support for quadrature encoder
- Isolated DIO channels with up to 60 V compliance
- Isolated and independent 16-bit DAC channels, configurable for voltage or current output
- 9 kHz to 9/14/20/26.5/32/43.5/54 GHz
- DANL: -164 dBm (with preamp)
- TOI: +20 dBm (typical) Analysis bandwidth: 150 MHz
- Amp range: DANL to +30 dBm
- Phase noise at 1 GHz: -110 dBc/Hz @ 100 kHz offset (typical)
- Demodulation: 5GNR, LTE FDD/TDD, RF, and modulation quality plus SSB signal analysis
- Resolution bandwidth (RBW): 1 Hz to 10 MHz
- Sweep Speed: 40 GHz/second (full span)
- RTSA bandwidth: 22, 55, 120, 150 MHz (option dependent)
- Amplitude accuracy: < 14 GHz ± 1.3 dB (± 0.5 dB, typical)
- Zero span with 60 ns minimum span
- IQ capture and streaming
- AM/FM modulation quality measurements
- Built-in PDF/HTML report generation
- EMF Measurements
- Uplink/Downlink interference analysis
- Interference hunting
- Channel Scanner
- Coverage Mapping
- 6U single slot VME form factor
- Nine digit time display
- Optional Have Quick synchronization input
- IRIG’s A and B and NASA 36 time code inputs
- 1PPS sync input
- IRIG B output
- 1PPS and time code inputs are redundant
- Single-slot including GPS option
- Zero latency time reads, microseconds through years
- External Event input (optional eight and sixteen inputs)
- Match Time output
- Programmable Heartbeat rate
- Video Time Inserter Option
- Many additional options
Maury Microwave
Maury Microwave is a pioneering leader in the design and manufacture of precision RF and Microwave calibration, test & measurement, and modeling solutions that are powering global efforts toward a more secure, more connected, future.
Maury Microwave offers Measurement and Modeling Device Characterization Systems and Services including nonlinear passive, active and hybrid-active fundamental and harmonic load pull, non-50Ω X-Parameter modeling, pulsed IV Pulsed s-parameters and compact transistor modeling, and patent-pending ultra-fast/accurate noise parameters.