Description

Item		Spec.	Remarks
Frequency Range		2350-2550 MHz	Bandwidth Range±10MHz
Working Voltage		28V	24-30V
Working current		10-15A	output 200W
Analog sweeping speed		Customized 50-300KHz Standard 120 KHz	8μ/s
Output Power (Max)		51.8±1 dBm	200W
Gain (Max)		51.8±1 dB
Ripple in Band		≤ 3 dB	Peak
Bandwidth adjustment		Yes	By screw
Center adjustment		Yes	By screw
Enable control		Customize	24-28V
Input power (Max)		≤ +10dBm	Optional (If signal source from Subscriber)
Input Signal Source		Built-in high-speed noise modulation signal source	Optional (customize VCO, DDS or SDR)
Output VSWR		≤1.5	Inside circulator, VSWR protect
High Low Temperature test	Working Temperature	-20～+65℃	Working properly
	Gain Stability	±1 dB	at -20℃～+65℃
	Power stability	±1 dB	at -20℃～+65℃
Power supply Port		Positive and negative lines	24-28V; GND; (optional: Enable control wire)
Shell Material		Aluminum with natural color oxide sand blasting
Vibration Need		Meet the load need of moving vehicle
RF output connector		N-type
LED indicator light		Power ON/OFF
Dimension		20010023 mm
Screw Size		M2.5
Weight		1000g

Key Features

200W GaN output stage — gallium nitride devices deliver the stage's peak output with the efficiency a compact, passively cooled housing needs, so full-power suppression does not require a heavy cooling stack.
Screw-tunable band — peak bandwidth and center frequency are set with adjusters built into the housing, so a technician can trim the module to local spectrum conditions instead of accepting a fixed window.
Two ways to drive it — an on-board modulation source lets the anti drone jammer stage run without any external exciter, while an input port accepts a signal from your own source if your architecture already provides one.
Protection inside the RF path — an internal circulator holds output VSWR down and guards the amplifier against reflected power, which matters where one antenna or combiner serves several stages in a drone jammer build.

Material & Build

The housing is machined aluminium with a natural-colour oxide sand blast. The metal is a thermal path as much as an enclosure: it carries heat away from the GaN output devices during long suppression runs, which is what keeps the amplifier working at its rated level rather than fading as the case warms.

The blasted surface is matte and non-reflective, and it takes the scuffs that come with repeated mounting, cable work and transport — the treatment suits equipment that moves between vehicles, masts and outdoor cabinets. Mounting points are machined into the same body, so the module fixes down without a separate bracket or cradle. Anti drone companies redeploy this kind of hardware often, so the shell is specified to survive handling rather than to look new in a showroom.

Deployment Scenarios

Fixed-site perimeter protection — a prison wall, airport fence line or refinery boundary that needs a permanent 2.4GHz layer. The module stays racked on site, fed by the site's own power and antenna system.
Vehicle and mobile command posts — the anti drone module travels with a patrol vehicle or a temporary command post rather than staying racked at a single location, so suppression cover moves with the team.
Temporary event cover — stadiums, VIP visits and public gatherings where a suppression set is deployed for days rather than years and then packed away again.
Rack upgrades and retrofits — counter drone companies that already run a suppression rack often add or replace the video-link stage without redesigning the rest of the build.
Test and evaluation benches — a single unit used to characterise band behaviour, antenna choice and coverage before a larger installation is signed off.

Installation & Commissioning

Mount the unit — secure the module on the rack shelf, vehicle plate or mast bracket using the M2.5 fixing points, leaving clearance around the housing so air can move across the aluminium surface.
Wire the DC supply — connect the marked positive and negative lines and bond GND, sizing the cable and the supply for the current the module draws at full output.
Run the antenna feed — connect the RF output to your antenna or combiner, and inspect the run and its connectors before the first power-up.
Set the band — with the module running into a matched load, adjust center frequency and peak bandwidth by screw against a spectrum reading taken at your site.
Verify output — confirm the panel LED shows power ON, then check forward power with a meter before the unit goes on air.
Re-check after transport — once the unit has travelled to site, confirm fixings, connectors and cable strain relief again before switching on.

Electrical & Physical Data

Working voltage	24-30V DC (28V nominal)
Working current	10-15A at 200W output
Power supply port	Positive and negative lines, GND, optional enable control wire
Enable control	24-28V, customizable
Operating temperature	-20 to +65 °C
Gain stability	±1 dB from -20 °C to +65 °C
Power stability	±1 dB from -20 °C to +65 °C
Vibration	Rated for the load demands of a moving vehicle
Housing dimensions	200 × 100 × 23 mm
Weight	Approx. 1000 g
Status indicator	LED, power ON/OFF

Technical Support & Model Matching

Choosing between a handheld detector, a vehicle-mounted or tripod-deployed system, a fixed passive detection installation, and a GaN suppression module comes down to your site, your threats and your existing equipment. Our team works with integrators and security buyers from your first enquiry: we help match the right detection range, band coverage and output level to the job, support customisation of module parameters, and stay available through installation, commissioning and troubleshooting. Send us your deployment scenario and we will recommend a configuration.

FAQ

Q1. Which drone links does the 2350-2550MHz band cover?

This is the video-link window. Most FPV and consumer drone video downlinks sit in the 2.4GHz class, which is why it carries so much of what an operator sees on screen. In an anti drone jammer build it is usually the stage aimed at the live video feed, while other bands handle control and navigation links.

Q2. Is this a finished device, or a module I integrate myself?

It is the RF power stage of a system rather than a handheld unit. You provide the DC supply, the antenna or combiner run and, unless you use the built-in source, the exciter signal. Anti drone companies typically buy it as the 2.4GHz stage of a multi-band build and mount it next to their other suppression stages.

Q3. Can the working band be adjusted on site?

Yes. Center frequency and peak bandwidth are set by screw adjusters on the housing, so a technician can trim the module to local spectrum conditions with a spectrum analyser in front of them. The bandwidth itself spans ±10MHz within the 2350-2550MHz window.

Q4. Can I use my own exciter instead of the built-in one?

Yes. The module accepts an external input of up to +10 dBm, which suits a drone jammer rack that already has its own modulation source or signal generator. If you prefer a self-contained stage, the built-in high-speed noise modulation generator does the job without any extra equipment.

Q5. What protects the output if the antenna is mismatched?

An internal circulator holds output VSWR at or below 1.5 and protects the output stage from reflected power. Treat it as a safety margin rather than a licence to run without a proper load: check the antenna and its connectors before the first power-up, and watch the panel LED at switch-on.

Q6. Are other frequency bands or power levels available?

This model covers the 2.4GHz window at 200W. The wider module range covers other bands and other power levels, so an anti drone system that has to address several drone links can be assembled from more than one stage. Tell us which links you need to cover and we will point you to the modules that fit.

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