300–2700 MHz
RF Power Amplifier
Manufacturer
Factory-direct GaN RF power amplifiers from 30W to 200W for CW and pulse applications. Built for broadband transmission, SDR front-end integration, and OEM/ODM RF platform development. Engineered and manufactured in-house.
CRF-PA-300M2700M Series — CorelixRF
Manufacturer Advantage
Why Source Directly
From CorelixRF
CorelixRF manufactures broadband RF power amplifiers for customers who need more than a catalog part. We support project evaluation from frequency planning and drive-level review to thermal design confirmation and final production delivery.
In-House RF Engineering
Frequency planning, gain-stage review, drive-level confirmation, and thermal-path assessment before sample build. You work directly with our RF engineers, not a sales intermediary.
Factory-Level Customization
Connector types, housing dimensions, supply architecture, sub-band optimization, and labeling can be adjusted for OEM/ODM projects. Customization begins with an application review, not a purchase order.
Broadband Test Validation
Representative units are verified for gain response, output power behavior, and reflected-power protection before release. Sample test data available during engineering review for selected models.
Batch Production Support
From prototype builds to repeat production, model configuration and test status remain traceable. We maintain configuration history to ensure consistency across production runs.
RF Engineering Lab — CorelixRF
Product Guide
Standard 300–2700 MHz RF Power
Amplifier Configurations
Compare models by output power, gain, operating mode, and supply voltage. Click a model number for full specifications. For projects requiring specific gain flatness or custom thermal management, contact our engineering team for a recommended configuration.
CRF-PA-300M2700M Series — Full Range
| Model Number | Frequency Range | CW / Pulse | Output Power | Typical Gain | Supply Voltage | Cooling | Datasheet | Inquiry |
|---|---|---|---|---|---|---|---|---|
| CRF-PA-300M2700M-30W | 300–2700 MHz | CW / Saturated | 30 W | ~45 dB | 28 V DC | Air | Datasheet | Request 30W Review → |
| CRF-PA-300M2700M-50W | 300–2700 MHz | CW / Saturated | 50 W | ~47 dB | 28 V DC | Air | Datasheet | Request 50W Review → |
| CRF-PA-300M2700M-100W | 300–2700 MHz | CW / Saturated | 100 W | ~50 dB | 28 V DC | Air | Datasheet | Request 100W Review → |
| CRF-PA-300M2700M-150W | 300–2700 MHz | CW / Saturated | 150 W | ~52 dB | 28 V DC | Air | Datasheet | Request 150W Review → |
| CRF-PA-300M2700M-200W | 300–2700 MHz | CW / Saturated | 200 W | ~53 dB | 28 V DC | Air | Datasheet | Request 200W Review → |
300–1700 MHz RF Amplifiers
For projects that need UHF / L-band coverage without the full 2.7 GHz upper range.
Compare Series →2–6 GHz RF Amplifiers
For S-band, C-band, and microwave front-end extension beyond this 300–2700 MHz platform.
View 2–6 GHz →Custom RF Amplifier Platforms
For custom band, connector, housing, cooling, control, or OEM/ODM integration requirements.
Review Custom Support →Use Cases
Typical Applications
The 300–2700 MHz frequency range and 30W–200W power range make this series suitable for broadband RF system integration across a wide variety of platforms.
Application Environments — SDR, EW, Tactical Comms
SDR Front-End Power Stage
Suitable for broadband transmit chains where drive level, gain consistency, and thermal stability must be planned together. The wide frequency coverage allows a single module to cover multiple bands in a software-defined system.
Related: SDR Digital RF Source Modules →Broadband RF Transmission Systems
Designed for wideband transmission architectures requiring reliable output power across the full 300–2700 MHz band without narrow-band tuning. Compatible with coaxial output interfaces commonly used in ground-based transmission systems.
Related: 300–1700 MHz Amplifiers →Electronic Warfare Test Platforms
Supports pulse mode operation with configurable duty cycle and output power. Suitable for lab evaluation and test bench configurations where high reflected energy tolerance and VSWR protection are required.
Related: 2–6 GHz RF Amplifiers →RF Laboratory Evaluation
Representative units are validated before shipment, making them suitable for evaluation in RF measurement environments. Test data can be provided to support lab integration and performance baseline comparisons.
Related: Request Sample Test Data →OEM RF Integration Projects
For OEM projects requiring connector types, housing dimensions, sub-band optimization, or control interfaces, CorelixRF can review custom RF power amplifier design requirements under NDA.
Related: Custom RF Development →Tactical Communication Platforms
The combination of GaN-on-SiC efficiency, VSWR protection, and conduction-cooled packaging options makes this series compatible with mobile and vehicle-mounted communication platforms requiring compact thermal management.
Related: RF Antenna Solutions →Selection Guide
How to Select the Right
300–2700 MHz Amplifier
These are the factors to confirm before submitting an inquiry. Providing this information allows our team to give a focused engineering recommendation rather than a generic catalog suggestion.
Gain Flatness
Choose wideband (WB) configurations when broad frequency coverage matters more than peak efficiency. For narrowband applications, sub-band tuning can improve gain stability and power-added efficiency (PAE) within a target window.
Drive Level
Confirm your source output level early to determine whether a driver stage is required. Standard inputs are matched for −10 to 0 dBm. SDR sources with lower output should be reviewed before model selection.
Thermal Design
Cooling method should be selected according to duty cycle, ambient temperature, and installation structure. High-power-density designs generally require conduction or liquid cooling. Heatsink sizing must account for worst-case ambient conditions.
CW vs Pulse Operation
Pulse width, duty cycle, and required headroom should be reviewed before model selection. These parameters directly affect thermal budget and must be aligned with the cooling architecture during integration planning.
Test & Measurement
How We Validate This
RF Power Amplifier Series
Representative units are tested under defined DC supply and matched-load conditions to verify gain response, output power behavior, and protection performance across the operating band. Sample test data can be shared during engineering review for selected models.
VNA Measurement — RF Test Bench
Custom Engineering
OEM / ODM Customization
Capability
For OEM projects, customization begins with application review, thermal planning, and interface confirmation. This reduces redesign risk during sample and pilot stages. Explore our custom RF power amplifier design service for platform-specific requirements.
OEM Customization — Housing & Connector Variants
Factory Process
Manufacturing and
Quality Control
Every production unit passes through a defined sequence of verification and assembly steps. This is how we maintain consistency between the first sample and repeat production runs.
Incoming Material Verification
Critical RF components and mechanical parts are checked against the project configuration before assembly begins. Component traceability is retained from this stage forward.
Assembly & Thermal Integration
Amplifier modules are assembled according to the approved electrical and thermal design. Thermal interface material application and mounting torque are controlled per specification.
Final RF Validation
Finished units are checked for gain response, output power, and reflected-power protection before shipment. Test conditions and results are logged per unit.
Batch Traceability
Model configuration, test status, and production revision history are retained for each batch. This supports repeat-order consistency and after-sales engineering review.
Manufacturing Process — CorelixRF Factory
Integration Advisory
Integration Considerations
Before Model Selection
Linearity & Headroom
Operating too close to Psat may degrade signal quality in linear links. Verify your P1dB requirements to ensure sufficient waveform headroom for the modulation scheme in use.
Antenna Mismatch
Broadband antenna variation can create high reflected energy across the band. Integrated VSWR protection is recommended to safeguard the amplifier from load-related stress at any operating frequency.
Thermal Stability
Baseplate temperature rise may affect long-term reliability and output power. Always verify thermal margins across expected operating cycles and worst-case ambient conditions before finalizing cooling design.
Engineering FAQ
Engineering FAQ
Common questions from engineers and procurement teams before submitting an inquiry.
Direct Manufacturer Contact