Tabor Electronics unveils Anti-Drone Test and Evaluation solution.
AI Analysis
Tabor Electronics has launched a new Anti-Drone Test and Evaluation solution based on its Proteus Software-Defined Radio (SDR) platform. This solution allows for realistic simulation and stress-testing of counter-UAS systems, focusing on communication link validation and resilience. The system utilizes COTS technology for rapid deployment and scalability.
Key Takeaways
- The Proteus SDR supports frequency hopping, jamming, and closed-loop signal analysis for comprehensive testing.
- Key features include up to 10GHz signal generation, 4.5GHz transmission bandwidth, and 2.7GHz receiver bandwidth.
- The system is configurable for benchtop, desktop, or PXI module deployment.
- The solution was initially developed to meet the requirements of a leading Israeli anti-drone technology firm.
- The system aims to reduce false alarms and accelerate the deployment of reliable counter-UAS capabilities.
Why It Matters
Effective counter-UAS testing is crucial as drone threats continue to evolve and proliferate. This COTS-based solution offers a flexible and scalable method for validating system performance, potentially accelerating the development and deployment of robust defenses for critical infrastructure and security applications. The emphasis on realistic RF environment emulation is a key advantage.
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Tabor Electronics unveils Anti-Drone Test and Evaluation solution
Tabor Electronics Launches Proteus-Based Anti-Drone Test & Evaluation Solution
[Nesher, Israel, Jan 30, 2026] – Tabor Electronics proudly announces the launch of its Anti-Drone Test and Evaluation solution, built on the Proteus Software-Defined Radio (SDR) platform. Designed to address the growing complexity of counter-UAS environments, the solution enables defense and security organizations to simulate, validate, and stress-test anti-drone systems with high fidelity and real-time adaptability.
Leveraging software-driven capabilities such as frequency hopping, jamming, and closed-loop signal analysis, the Proteus-based solution provides a flexible and scalable framework for evaluating communication links under contested conditions. This allows users to detect unauthorized drones, validate system resilience, and accelerate the development of robust countermeasure strategies for secure operations.
The Tabor Proteus series of Software Defined Radios delivers high-performance test and evaluation capabilities through advanced commercial off-the-shelf (COTS) transceiver technology, enabling rapid deployment without compromising precision or flexibility.
Key Features of the Proteus SDR:
Direct Digital Architecture: Utilizes wide bandwidth RF DACs and ADCs for precise signal generation up to 10GHz, enabling accurate emulation of complex RF environments.
High Performance: Up to 4.5GHz of instantaneous transmission bandwidth, deep memory, and dynamic waveform upload capability support continuous, high-fidelity signal generation for extended test scenarios.
Real-Time Adaptability: 2.7GHz of instantaneous receiver bandwidth combined with a programmable FPGA enables real-time threat behavior emulation and closed-loop response testing.
Scalability and Flexibility: Configurable as a benchtop instrument, desktop unit, or PXI module, with full phase-coherent operation across channels, allowing seamless scaling from lab validation to system-level testing.
The Tabor Arbitrary Waveform Transceiver architecture, based on a “system-in-a-module” approach, integrates RF DACs/ADCs, programmable FPGA resources, large memory, and high-speed data bus technology—delivering a compact yet powerful platform for advanced SDR applications.
Mark Elo, Tabor's Chief Product Officer, explains: “An anti-drone test and evaluation (T&E) solution is critical to ensuring that Counter-Unmanned Aircraft Systems can accurately detect, track, and mitigate evolving, unauthorized drone threats in complex environments. Our Proteus-based solution enables customers to validate system performance, reduce false alarms, and accelerate deployment of reliable counter-UAS capabilities for protecting critical infrastructure, public venues, and defense assets. Originally developed to meet the needs of a leading Israeli anti-drone technology