Powerful 50W GaN Drone Jamming Module Covers 1600-1800MHz
Compact 50W GaN drone jamming module for 1600-1800MHz. 47dBm output, 28V supply, SMA connector, 270KHz scan speed. Weighs only 300g.
Technical Specifications
| Parameter | Specification | Notes |
| Frequency range | 1600-1800MHz | Instant wideband |
| Output power | 47±1dBm (50W) | Measured at 28V |
| Supply voltage | 28V | 24-28V range acceptable |
| Current draw | ≤3.2-4.5A | At full 50W output |
| Modulation source | Built-in high-speed noise | VCO, DDS, SDR customizable |
| Analog scan speed | 270KHz | Custom 100-500KHz available |
| Input / output impedance | 50 Ohm | SMA female connector |
| Protection LEDs | Power, over-voltage, over-temp | Visual status indicators |
| Operating temperature | -20°C to +65°C | Normal operation range |
| Dimensions (L×W×H) | 117*58*18mm | Custom sizes available |
| Weight | 300g | Lightweight design |
| Base material | Copper heat spreader with GaN-on-SiC | Patented thermal management |
Product Details
The 50W GaN drone jamming module delivers instant wideband coverage from 1600MHz to 1800MHz. Built on a gallium nitride-on-silicon carbide platform with a copper heat spreader, it combines AB-class linearity with high efficiency. At just 300 grams and 117x58x18mm, this module fits into portable counter-UAS kits, vehicle-mounted jammers, and fixed site installations. The SMA female connector and 50-ohm impedance make RF integration straightforward. This unit targets a critical band used by many drone command and video links.

Why This Band Matters
Many commercial and consumer drones rely on 1.6-1.8GHz for control uplinks and video downlinks. A dedicated 50W GaN drone jamming module in this range lets you focus power where threats actually operate. Instantaneous wideband design means no channel tuning delays. When a drone appears, you can begin jamming immediately across the entire band. That speed can make the difference between neutralizing a threat and losing track of it.
Compact Build, Serious Output
Despite its small size, this module produces 47dBm (50W) of RF power with current draw between 3.2A and 4.5A from a 24-28V DC supply. The GaN-on-SiC architecture provides higher power density than older LDMOS designs, which is why the module stays small and light. Output stability remains consistent across the full 1600-1800MHz range without retuning. The SMA female output connector handles the RF load cleanly.
Custom Modulation Paths
The stock configuration includes a built-in high-speed noise modulation source. If your mission requires specific jamming patterns, you can specify VCO, DDS, or SDR sources instead. Analog scan speed defaults to 270KHz, with customization available from 100KHz to 500KHz. This means the module can adapt to different threat profiles or integrate with existing signal generation systems. No need to redesign your whole countermeasure chain.
Thermal Design That Survives Field Use
Heat management is critical for sustained jamming. This 50W GaN drone jamming module uses a copper base material and a patented thermal treatment process to pull heat away from the active devices. Operating temperature spans -20°C to +65°C without derating or performance loss. Front-panel LEDs indicate power status, over-voltage, and over-temperature conditions. You get clear visual feedback even in bright sunlight or low-light conditions.
Simple Field Integration
The module’s 50-ohm input and output impedance means you can drop it into any standard RF chain without custom matching networks. Weighing only 300g, it adds minimal burden to portable systems. The 24-28V supply range matches common Li-ion or vehicle battery banks. If you need lower band coverage, check our 100W GaN anti drone module for 400-500MHz. Together they create a multi-band countermeasure net.
Operational Notes for Deployments
Before powering the module, confirm your supply voltage stays within 24-28V to avoid over-voltage faults. Use proper RF cabling rated for at least 50W continuous power. The module’s protection LEDs will alert you to any thermal or voltage issues. For extended jamming sessions, ensure adequate airflow around the copper base. Custom dimensions are available if your enclosure has space constraints.
Why GaN on SiC Matters
Gallium nitride grown on silicon carbide offers better thermal conductivity than GaN on silicon. That means the transistor junction stays cooler at high output powers, which extends component life and reduces failure rates. For a 50W GaN drone jamming module that may run continuously during a security operation, this reliability advantage translates directly to mission success. It also enables the compact footprint without sacrificing output power or efficiency. For more technical background, visit the IEEE Xplore digital library or Qorvo’s GaN technology resources.
Below is an image of the 50W GaN drone jamming module with its copper base visible. Alt text: 50W GaN drone jamming module.




