Introduction: OEM buyers need a clear plan for target frequencies, destination rules, and RFQ inputs before a supplier can quote a custom 12-channel 50W drone jammer.
An overseas distributor or OEM project lead may be preparing a counter-drone program around drone detectors. A related project might involve integrated jammer equipment or an anti drone defense system, but the hardest part is often not choosing a box. You need to define what each RF channel should cover, confirm the plan can be authorized in the destination market, and give the factory enough technical detail to quote accurately. A 12-channel 50W platform offers flexibility to match local drone threats, but that flexibility becomes useful only when frequency planning, compliance preparation, and sample discussions follow a practical order. Start with target bands, then align compliance and RFQ details into a quote-ready OEM request.
A 12-channel 50W configuration is more than a higher power figure. It is a modular RF plan. The BP-H18 uses 12 independent 50W channels with 600W total output and customizable frequency bands. In an OEM project, you can assign each channel to a target band rather than forcing the whole system into one fixed frequency set. This lets you separate drone control links, video links, and other assigned bands, then reserve spare channels for future threats or a second project variant. The practical value is that one hardware platform can serve different destination requirements when the channel map is planned early.
Start with the threat list, not the hardware. Identify the drone models, remote controls, video transmitters, and FPV links that matter in the destination project. Typical targets include 400-450 MHz, 840-960 MHz, 1.1-1.3 GHz, 1.5 GHz, 2.4 GHz, and 5.8 GHz, plus the higher 6-8 GHz range used by some FPV and video systems. Mark each band as mandatory, optional, or future expansion. Your RF engineer can then compare that list with the 12 available channels and propose a channel map covering center frequency, bandwidth, guard spacing, antenna assignment, and control switch layout. This work should happen before module layout because band choice affects filters, heat load, and how cleanly each 50W channel operates beside its neighbors.
600W total output describes the platform's combined RF capacity; per-channel use depends on the project. A 12-channel 50W design can run all channels together or only the bands needed for a specific mission. If the project needs four strong bands, the RFQ should say so. If it needs ten narrow bands, that is a different plan. Per-channel power also affects thermal design, power supply sizing, and battery runtime. Treat 600W as a system budget and 50W as a channel-level requirement. VSWR and overheat protection are built in as safeguards for full-output testing and mismatched antenna conditions.
Compliance belongs in frequency planning from the beginning. The destination country determines which bands may be transmitted, who may operate the equipment, and what import or end-user approvals are required. In Europe, the Radio Equipment Directive (RED) sets the conformity assessment direction for radio equipment placed on the market. For ultra-wideband counter-UAV systems, the Wassenaar Arrangement control lists can affect export licensing and customs treatment based on technical characteristics and end use. ITU WP 5A work on land mobile service and spectrum allocation provides useful background when matching a channel plan to local spectrum rules. OEM buyers should prepare destination, end user, intended use, and requested frequency ranges early, because a custom band may be technically possible yet still require local authorization before shipment or use. Documentation should match the project stage. At the inquiry stage, a clear destination statement, end-user profile, and band request are enough to begin technical review. For sample and order discussions, buyers usually cover import or export licenses, end-user certificates, spectrum authorization or waiver where required, product conformity documents, test reports, commercial invoice, packing list, and technical data. The exact certificate scope for a custom frequency build is worth checking in the RFQ. Export licensing depends on the destination, and custom frequency must be checked against local spectrum rules and technical feasibility. Clear information up front helps prevent delays once the channel plan is locked.
A useful RFQ is short but specific. Provide the destination country, project type, end user, threat list, mandatory and optional bands, channel count, power per channel, antenna preference, control interface, power supply, and environmental conditions. State whether you need a complete integrated unit, a module set for your own enclosure, or a reference design based on a platform such as BP-H18. If the project has a tender document, share the RF section and any local spectrum notes. This lets the supplier respond with a real channel plan instead of a generic catalogue reply. It also gives the RF team a chance to flag filter spacing, cooling load, or control logic issues before a sample is built. For the sample discussion, request a configuration that matches the intended channel map, not just a stock unit. Test the sample against the drone links you expect to face, check channel independence through the control panel, and review VSWR and overheat protection behavior under realistic antenna conditions. Ask how custom frequency bands are validated, what test data comes with the sample, and which parts of the plan are fixed or adjustable for later production. Commercial terms such as MOQ, sample lead time, price, warranty, and certification scope require direct confirmation with the sales team. A practical action is to send your destination, target bands, project use case, and sample plan to Greetwin, and request a quote for a custom 12-channel 50W anti drone defense configuration.
A custom 12-channel 50W drone jammer project becomes easier to quote when you separate the work into three layers: channel planning, destination compliance, and RFQ data. Start with the threat bands and map them to 12 independent 50W channels. Treat 600W as total system capacity, then confirm what each channel must do. Prepare destination and end-user information before discussing samples. With a clear band list, compliance notes, and sample expectations, an OEM buyer can move from a general inquiry to a technical discussion that produces a usable frequency plan. Greetwin can support that process with a customizable 12-channel platform.
A：Provide the destination country, end user, project use case, drone links or frequency bands to cover, mandatory and optional bands, channel count, power per channel, antenna and control needs, power supply, and any local compliance notes. If a tender document exists, share the RF section. This gives the supplier enough detail to propose a channel map and check technical feasibility instead of quoting a generic unit.
A：Yes. The Greetwin BP-H18 uses 12 independent 50W channels, 600W total output, and customizable frequency bands. Each channel can be planned for a target band, and the model includes VSWR and overheat protection. The final channel plan still needs RF feasibility review and a check against destination spectrum rules.
A：Typical discussions cover destination import or export licensing, end-user certificates, spectrum authorization or waiver where required, product conformity documents, test reports, commercial invoice, packing list, and technical data. Because export licensing depends on the destination and the exact certification scope for a custom build is worth checking in the RFQ, buyers is worth checking the document package directly with the supplier.
Radio Equipment Directive (RED) - Internal Market, Industry, Entrepreneurship and SMEs
Control lists - The Wassenaar Arrangement
Working Party 5A (WP 5A) - Land mobile service excluding IMT; amateur and amateur-satellite service
