Facebook

High-Band RF Amplifier Selector

Jammer Module – High-Band RF Amplifier Selector

High-Band RF Amplifier Selector

Choosing the right board starts with the link you intend to affect, not the wattage printed on the housing. This selector walks from drone control, video and telemetry links to the frequency classes actually stocked for a jammer module, then narrows the shortlist by output power, DC supply and connector so the uav jammer module you order drops into an existing RF chain without a redesign.

Customized 50W 6500-6800-7100MHz High Frequency RF Power Amplifier Module

Power tiers: what changes at 10 W, 50 W, 100 W and 500 W

Only the 50 W class has a fully published table on this page. The other tiers are either a catalog class or a built-to-order configuration — treat their electrical numbers as items to confirm in writing.

Built to order

10 W

Not listed in the current catalog. If your link budget closes at low power, ask for a 10 W build with your band and connector type and confirm gain and DC draw before design freeze.

Published datasheet

50 W

GW-PA50W: 47 dBm ±1.5 dBm, gain 47 ±1.0 dB, +24–28 V DC at 3.6 A, SMA ports, 132 × 53 × 17 mm, −40 to +70 °C working range.

Catalog class

100 W

A 100 W anti-drone module is listed for 8000–12000 MHz. DC current, gain, connector and cooling requirements are confirmed at the RFQ stage.

Catalog class

500 W

A 500 W module is listed for 1100–1500 MHz. Plan the DC feed, heatsinking and connector type with the supplier before you size the enclosure.

Three integration checks before you order

  • DC budget and heat. At 24 V, the stated 3.6 A draw is roughly 86 W of DC input for the 50 W RF class. Budget the difference as heat and size the heatsink and airflow for it, not for the RF number alone.
  • Matching. Input VSWR ≤1.35 and output VSWR ≤1.3 are quoted into a matched load. A poorly matched antenna or lossy cable run sends reflected power back at the amplifier, so verify the feed before testing at full drive.
  • Power is not range. What the far end sees is set by antenna gain, feed loss and receiver sensitivity. Choose a power tier for headroom and thermal margin, then close the link budget on the antenna side.

Pre-RFQ selection checklist

Eight things to settle before you send an inquiry. Each one removes a round of questions later.

  • 1Start and stop frequencyWrite the exact block in MHz, not just a band name — this is the single item most likely to change the quote.
  • 2Bandwidth against block widthCompare your block width with the listed bandwidth; the GW-PA50W documents 200/300 MHz.
  • 3Output power at the connectorAsk for power quoted at the output port, and confirm its tolerance — the GW-PA50W states 47 dBm ±1.5 dBm.
  • 4Gain and gain flatnessGain 47 ±1.0 dB with ripple ≤2.5 dB on the 50 W class; check both if your chain has fixed attenuation.
  • 5VSWR expectationConfirm the module's input and output VSWR figures and measure your antenna and combiner before full-power testing.
  • 6DC rail and currentState the rail you can supply; the 50 W class expects +24–28 V DC at 3.6 A at rated output.
  • 7Connector and mechanical fitConfirm SMA or a custom interface, plus the housing envelope — the GW-PA50W measures 132 × 53 × 17 mm.
  • 8Thermal pathPlan the heatsink for dissipated heat, then check the working temperature range against your enclosure — −40 to +70 °C on the 50 W class.

One line that prevents a rebuild

Put this sentence at the top of your inquiry: “Required band: ____ MHz to ____ MHz, output power at the connector ____, connector type ____, quantity ____.” Everything else — gain, DC current, cooling, packaging — follows from those four blanks.

Send band, power and quantity — get a quoted configuration

Every module in this catalog is inquiry-driven: you specify the band, the power tier and the interface, and the configuration is confirmed against your build.

  • Band: start and stop frequency in MHz, plus the bandwidth you need covered.
  • Power tier: output power required at the connector — 10 W, 50 W, 100 W, 500 W or a custom level.
  • Connector and interface: SMA or a custom interface, plus cable type if already chosen.
  • DC supply: the rail you can provide and its current capability per branch.
  • Mechanical envelope: available space and mounting orientation inside your enclosure.
  • Order details: quantity, packaging and labelling requirements, and any target delivery window.

Talk to the RF team

Customization of frequency, power and packaging is available on request through direct contact.

info@greetwin.com +86 151 1226 7605 Contact Us

Greetwin · 5/F, Building A, Baodeli, No. 338, Huanguan Middle Road, Songyuansha Community, Guanhu Street, Shenzhen, Guangdong, China.

Related Reading

Three notes to help clarify product requirements before contacting the supplier.

How RF Power Amplifier Modules Work in Drone Jammer Signal Chains

A power amplifier module turns a low-level exciter signal into the transmit power a drone jammer signal chain needs to radiate.

Read article

Preparing an OEM RFQ for Anti-Drone RF Power Amplifier Modules

Custom RF power amplifier module RFQs for anti-drone systems move faster when procurement translates engineering requirements into a clear technical package before technical contact begins.

Read article

How to Integrate a 50W Drone Jammer Module into a Counter-UAV Enclosure

Integrating a 50W drone jammer module into a counter-UAV enclosure comes down to three practical problems: removing heat, delivering DC power without voltage sag, and routing RF cleanly.

Read article

Frequently Asked Questions

which band should i choose for a drone control link?

start from the operating block of the link you want to affect, then look for a module that covers it. the stocked classes on this page are 1100–1500 mhz, 6500–6700 mhz and 8000–12000 mhz. anything outside those classes is built to order, so send the exact start and stop frequency rather than a band nickname.

what is the difference between centre frequency and bandwidth?

the frequency range tells you where the module operates; bandwidth tells you how wide a block it covers inside that range. the gw-pa50w lists 6500–6700 mhz with a 200/300 mhz bandwidth. specify both numbers in your inquiry so the module is matched to the block you actually need, not just to a nominal band label.

what connectors does the 50 w module use?

the gw-pa50w uses standardized sma connectors on the input and output, which keeps it compatible with common lab cable assemblies and simplifies maintenance. if your enclosure needs a different interface, state it in the inquiry — the product faq confirms that customization is available through direct contact.

does a higher power tier give me more range?

not directly. what the far end receives depends on antenna gain, feed loss and receiver sensitivity as much as on amplifier output. choose a power tier for headroom and thermal margin, then close the link budget on the antenna side. a well-matched, higher-gain antenna can matter more than moving up a power class.

can i order a custom frequency, power level or packaging?

yes. the product page faq states that frequency, power and packaging customization is available through direct contact, and several catalog modules are already listed as customized builds. send the band, the power you need at the connector, your interface and your quantity to get a configuration confirmed.

what should i include in my first inquiry?

four numbers carry most of the weight: the start and stop frequency, the output power required at the connector, the connector type, and the quantity. add your available dc rail, the space inside the enclosure and any packaging or labelling requirements. that set is enough for a supplier to come back with a specific configuration and its electrical details rather than a generic catalogue reply.