P9484M RF AWG

The Tabor P9484M RF AWG is a powerful RF arbitrary waveform generator module designed for high speed signal generation and advanced RF testing. With a 9GS/s sampling rate, 16-bit resolution, and four independent output channels, it allows engineers to create complex RF waveforms for Electronic Warfare simulation, radar system development, and next generation wireless communication research.

As part of the advanced Proteus platform, the P9484M RF AWG uses a modern SDR architecture that enables the instrument to generate, analyze, and respond to signals in real time. Its integrated FPGA feedback system supports intelligent waveform control and conditional signal generation, giving engineers a responsive and flexible testing environment for complex RF systems.

Key Features

9GS/s ultra high sampling rate for advanced RF waveform generation
16-bit vertical resolution for superior signal accuracy
4 independent RF output channels for synchronized multi channel testing
8 programmable markers for precise timing and signal control
8GS waveform memory for storing long and complex signal sequences
High speed PCIe data transfer architecture for fast waveform loading
Integrated digital IQ modulators and demodulators
Real time FPGA feedback system for conditional waveform generation
Excellent phase noise and spurious signal performance
Task table sequencing for intelligent waveform switching
Optional streaming capability for continuous waveform playback
Compatible with Python, MATLAB, C, and LabVIEW programming environments

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Description

P9484M RF AWG Performance and RF Signal Generation

The Tabor P9484M RF AWG is designed to deliver precise RF waveform generation for demanding engineering and research environments. With an ultra fast 9GS/s sampling rate and a high resolution 16-bit architecture, this module produces extremely accurate signals that replicate complex RF environments used in radar, wireless communication, and Electronic Warfare testing.

The four independent RF output channels allow engineers to generate synchronized waveforms for advanced multi channel signal experiments. This capability is essential for testing modern communication technologies such as massive MIMO systems, radar arrays, and high frequency signal processing platforms.

Modular Architecture and Scalable System Design

The P9484M RF AWG is built using a modular PXI Express architecture that provides a flexible and scalable design. Laboratories and research facilities can expand their setups from a small number of channels to large synchronized systems that support complex signal generation tasks.

The compact module structure allows multiple instruments to be installed in a limited rack space while maintaining precise timing and phase coherence. This scalability makes the system suitable for large scale radar simulation systems, Electronic Warfare testing environments, and advanced quantum computing experiments.

Real Time Feedback System

A major strength of the P9484M RF AWG is its integrated real time feedback control system. The waveform generator and optional digitizer are connected through a powerful FPGA processing platform that analyzes incoming signals and reacts immediately.

This architecture removes the delay normally caused by external signal processing on a host computer. As a result, the system can instantly modify its output waveform based on measured signals. This capability supports closed loop Electronic Warfare systems, adaptive RF signal testing, and responsive radar target simulation.

Intelligent Waveform Sequencing

The P9484M RF AWG also includes an advanced task table sequencing engine that enables intelligent waveform control. Instead of running waveform segments in a simple linear order, the instrument can dynamically switch between waveform patterns depending on trigger events or received signals.

In radar testing environments, this capability allows the instrument to operate as a radar target simulator. The system can detect incoming radar pulses and generate delayed echoes or Doppler shifted signals to simulate moving targets. Engineers can program these waveform responses using Python, MATLAB, C, or LabVIEW, which simplifies integration into automated RF testing systems.

Technical Specifications

Parameter	Specification
Model	P9484M
Instrument Type	RF Arbitrary Waveform Generator Module
Sampling Rate	9GS/s
Resolution	16-bit
Output Channels	4
Markers	8
Standard Memory	8GS
Optional Memory	Up to 16GS
Architecture	Advanced SDR based RF platform
Data Interface	High speed PCIe
Streaming Capability	Up to 6GS/s optional
Digital IQ Modulation	Integrated
Feedback System	FPGA based real time feedback
Optional Digitizer	5.4GS/s single channel or 2.7GS/s dual channel
Trigger Input	10 MHz standard, optional 50 MHz
Programming Support	Python, MATLAB, C, LabVIEW
Warranty	3 years standard