Portable 8-Channel High-Power UAV Jammer

This high-power 400W portable 8-channel drone jammer provides rapid tactical deployment. Featuring a built-in 24V 10Ah battery and 3-12dBi directional antennas, it delivers full-band defense from 400MHz to 5.8GHz.

Balanced 400W Full-Band Power Injection
Autonomous Battery-Powered Field Deployment
High-Efficiency Directional Wave Propagation
Compact SWaP Profile and Thermal Stability

Product Details

Indicator Parameters

Offer customize frequency service
Channel	Working Frequency	Output Power(±1.5 dBm)
CH1 400MHz	423-438MHz	47 dBm(50W)
CH2 900MHz	860-930MHz	47 dBm(50W)
CH3 1.2G	1170-1280MHz	47 dBm(50W)
CH4 1.4G	1400-1500MHz	47 dBm(50W)
CH5 1.5G	1550-1620MHz	47 dBm(50W)
CH6 2.4G	2400-2500MHz	47 dBm(50W)
CH7 5.2G	5150-5350MHz	47 dBm(50W)
CH8 5.8G	5700-5900MHz	47 dBm(50W)
Inside battery working	30-40Minutes : 24V,10Ah
Working temperature	-20℃ to +65℃
Total output power	400W
Power consumption	800W
With directional antenna	3-12 dBi Gain
Weight	≈7kg
Size	410x410x200mm

FAQ

Q1: What are the operational advantages of allocating a flat 50W of power to each of the 8 bands simultaneously?: A1: Standard multi-band jammers often dilute power on higher microwave bands. Providing a dedicated 50W (47dBm) solid-state amplifier module to every single channel ensures that high-frequency links (like 5.2GHz and 5.8GHz) receive identical spectral density as lower UHF/VHF links, preventing power drop-offs that advanced commercial drones could exploit to bypass countermeasures.
Q2: How does the integrated 24V 10Ah battery safely sustain the system’s 800W power consumption rate?: A2: An 800W total consumption draw demands highly stable current discharge characteristics. The internal 24V 10Ah battery matrix uses premium industrial-grade cells rated for a high continuous C-rate discharge. This specialized architecture safely fuels the 400W total RF output engine for 30 to 40 minutes of continuous target engagement without experiencing premature voltage sag.
Q3: Why does the directional antenna gain vary from 3dBi to 12dBi across the different channels?: A3: This variance is a result of RF physics and enclosure space. Lower frequency bands, such as 400MHz and 900MHz, have longer wavelengths requiring larger elements, yielding wider beamwidths and lower baseline gains (3–5dBi). Microwave bands like 2.4GHz and 5.8GHz utilize compact multi-element patch arrays that focus energy into tighter forward cones, achieving peak gains up to 12dBi for extended range suppression.
Q4: How does the internal thermal design protect components inside a compact 410x410x200mm closed chassis?: A4: Generating 400W of raw RF power within a dense 410x410x200mm layout creates severe thermal energy concentration. The system relies on a forced-induction internal smart cooling array that continuously pulls heat away from the amplifier cores and expels it through optimized ventilation tracks. This active regulation protects the system from thermal drift or component failure up to an ambient +65°C.
Q5: What specific drone subsystems are compromised when all 8 frequency channels are engaged?: A5: The 8-band matrix isolates and multi-tracks all vital operational aspects of standard consumer, FPV, and industrial UAVs. Engaging the channels simultaneously blocks operator remote control inputs (400M/900M/1.4G/2.4G/5.8G), completely severs real-time FPV HD video transmission streams (1.2G/2.4G/5.2G/5.8G), and denies satellite navigation fixes (1.5G GPS/GLONASS/BeiDou), forcing immediate auto-landing or return-to-home protocols.