CorelixRF | RF Systems Solutions
RF Power Amplifier Manufacturer (30MHz–6GHz) | 30–200W GaN Solid-State PA | CorelixRF
CorelixRF GaN RF power amplifier modules — HZ series 30–200W, conduction-cooled baseplate, SMA/N connector, 30MHz–6GHz solid-state PA
DIRECT MANUFACTURER — CORELIXRF

RF Power Amplifier
Manufacturer
30 MHz–6 GHz  ·  30–200W GaN  ·  Factory-Direct

CorelixRF is the manufacturer — not a distributor. Factory-direct GaN solid-state RF power amplifier modules, four frequency families, 30W–200W. Standard models available for fast shortlist. OEM/ODM engineering review from the same production facility. Datasheet, test data, and RFQ supported before order commitment.

MANUFACTURER Direct Factory FREQ 30 MHz–6 GHz POUT 30–200W MODELS Standard + Custom SUPPORT Engineering Review DOCS Datasheet / Test Data / RFQ
SELECT BY FREQUENCY BAND
30 – 512 MHz
30–200W
28V
300 – 1700 MHz
30–200W
28V
300 – 2700 MHz
30–200W
28V
2–6GHz
30–200W
36–58V
SKU Count
20
standard models
Lead Time
4–6W
standard config
OEM Reply
24H
engineering team
Direct Manufacturer — Not a Distributor
Standard Models + OEM/ODM Customisation
Factory-Side RF Test Support
Engineering Review Before Order
Datasheet / Test Data Available
24H RFQ Response from Engineering
SOURCING GUIDE

Common RF Amplifier Sourcing Challenges — And How CorelixRF Helps

Most RF amplifier projects do not fail because a supplier cannot be found. They fail because the wrong model is selected, key integration conditions are missed, or buyers cannot get stable engineering communication from a trading company. CorelixRF is the manufacturer — the engineering team behind every quote is the same team that builds the product.

Company Challenge
We need a manufacturer with stable engineering communication, not a trader.
CorelixRF is the factory. 400 engineering and production staff, dedicated RF PA assembly line — every RFQ is reviewed by the engineering team that builds the product, not a sales intermediary.
Company Challenge
We need faster model selection across multiple projects without starting custom each time.
CorelixRF offers four standard frequency families from 30 MHz to 6 GHz with five power tiers — 20 standard SKUs to shortlist from before any custom discussion begins.
Company Challenge
We need custom review based on a validated standard platform, not an open NRE project from scratch.
CorelixRF starts custom reviews from the closest standard platform. Frequency split, voltage adjustment, connector change, or mechanical re-packaging — defined scope, not open NRE.
Product Challenge
Thermal path design is unclear for conduction-cooled modules.
CorelixRF asks for heatsink condition and operating temperature before confirming suitability. Derating curves are available if your thermal environment falls outside standard spec.
Product Challenge
Supply voltage compatibility and connector match are unclear at RFQ stage.
The product matrix shows the full VDC range per model. SMA and N-type are standard; other connectors are available as OEM options. Specify early and CorelixRF confirms compatibility in the first reply.
Product Challenge
CW vs pulse mode and duty cycle requirements are not confirmed before ordering.
CorelixRF asks for duty cycle, PRF, and pulse width before recommendation. Peak power alone is not enough — the engineering team confirms the thermal budget before committing to a model.
STANDARD MODEL DATABASE

Standard RF Amplifier Model Matrix

Browse CorelixRF standard RF power amplifier models by frequency band and output power. Use the matrix below to compare key specifications and identify the closest fit for your project.

Standard models are the starting point — not the only option. If your project requires different voltage, connector type, mechanical size, or modified frequency range, CorelixRF can review a custom direction based on the closest standard model. Request closest-match custom review →
Compare standard models by band and power
Request closest-match custom review
Ask for datasheet or test data before final selection
Popular Combinations — Quick Select
FILTER THIS TABLE:
Model Band Power VSWR Supply Imax Size Datasheet RFQ
PRODUCT FAMILIES

Choose by Frequency Band

CorelixRF organizes this amplifier platform into four frequency families so engineers can move from band selection to model shortlist more efficiently.

30 – 512 MHz

30–512 MHz RF Power Amplifiers

Designed for lower-frequency wideband RF projects, VHF/UHF-related system integration, and lab platforms that require broader coverage in lower bands. Standard models available from 30W to 200W with conduction-cooled structure. Best suited for OEM projects that need lower-band wide coverage and teams building evaluation or production platforms in the sub-GHz range.

CRF-PA-30M512M-30W CRF-PA-30M512M-50W CRF-PA-30M512M-100W CRF-PA-30M512M-150W CRF-PA-30M512M-200W
View 30–512 MHz Series
300 – 1700 MHz

300–1700 MHz RF Power Amplifiers

A practical mid-band family for customers who need broader usable coverage within one amplifier platform. Suitable for subsystem integration, OEM platform development, and engineering validation projects that require a single module to span L-band and lower S-band without custom frequency splitting. For teams comparing one mid-band platform across multiple use cases.

CRF-PA-300M1700M-30W CRF-PA-300M1700M-50W CRF-PA-300M1700M-100W CRF-PA-300M1700M-150W CRF-PA-300M1700M-200W
View 300–1700 MHz Series
300 – 2700 MHz

300–2700 MHz RF Power Amplifiers

A wider standard family for customers requiring more band flexibility in a single product line. Well-suited for multi-band projects, internal comparison programs, and integration planning that needs broader headroom. For teams managing multi-band projects who need fewer amplifier platforms across different configurations. The wider coverage reduces the need for multiple families.

CRF-PA-300M2700M-30W CRF-PA-300M2700M-50W CRF-PA-300M2700M-100W CRF-PA-300M2700M-150W CRF-PA-300M2700M-200W
View 300–2700 MHz Series
2–6 GHz

2–6 GHz RF Power Amplifiers

High-frequency amplifier models for broadband RF development, upper-band lab systems, and custom OEM programs that require standard high-power modules as a starting platform. For higher-frequency integration programs using standard modules as a validated design base. Note: supply voltage range varies by power tier in this family (36–58V) — always confirm VDC compatibility before finalizing design.

CRF-PA-2G6G-30W CRF-PA-2G6G-50W CRF-PA-2G6G-100W CRF-PA-2G6G-150W CRF-PA-2G6G-200W
View 2–6 GHz Series
POWER SELECTION

Select by Output Power

In many RF sourcing situations, output power is the fastest way to narrow down the right model family. CorelixRF standard platforms include five practical power tiers.

30W
Entry Tier
Compact integration and lower thermal burden. Suitable for evaluation builds and lower-power system validation where heatsink capacity is limited. Choose this tier when compact size or thermal budget is the primary constraint.
View 30W Models
50W
Balanced Tier
Balanced output with manageable thermal requirements and common integration flexibility. A practical middle-ground for most lab and subsystem integration scenarios.
View 50W Models
100W
Mainstream Tier
The mainstream integration tier — stronger output within standard module architecture and manageable supply requirements. Most frequently requested tier for OEM integration programs.
View 100W Models
150W
Higher Output
Higher RF output in a standardized conduction-cooled platform. Plan heatsink capacity carefully — thermal dissipation requirements increase significantly at this tier.
View 150W Models
200W
Maximum Tier
Maximum output from a solid-state conduction-cooled module. Higher thermal and supply planning required — confirm heatsink capacity and power supply voltage range before ordering.
View 200W Models
SHORTLISTING REASONS

Why Engineers Shortlist CorelixRF

Standard Model First, Custom Second

Our approach is to match buyers to the closest standard platform before discussing custom work. This speeds up procurement, reduces NRE cost, and gives buyers a working reference before modification scope is defined.

Factory-Direct with Full Test Support

CorelixRF is the manufacturer. Each unit goes through a 46-step production test protocol covering output power, gain, VSWR, and harmonic levels. Test data packages are available on request — not promised and not delivered.

Engineering Communication, Not Sales Scripts

RFQ responses from CorelixRF include recommended models, relevant datasheets, key integration notes, and lead-time options — or a custom proposal if your specs fall outside standard range. Every inquiry gets an engineering review, not a catalog reply.

Conduction-Cooled by Default

All standard models use a conduction-cooled baseplate architecture, making them suitable for integration into system-level enclosures, chassis, and platform builds where external fan cooling is not practical or reliable.

OEM/ODM Without Minimum NRE Friction

Frequency adjustment, voltage adaptation, connector change, and mechanical re-packaging are all reviewable from a standard platform base. Custom programs can start with sample quantities before batch commitment.

Four Wideband Families, 20 Standard SKUs

Standard models in four frequency families and five power tiers give engineers a clear starting reference without requiring custom discussion before evaluation. The matrix covers most integration scenarios before OEM adaptation is needed.

USE CASES

Typical Applications

CorelixRF GaN amplifier modules are used across a range of integration scenarios that require high output, wideband coverage, and reliable thermal management.

01

RF Test Benches & Lab Systems

High-power amplifier modules for driving test fixtures, antennas, and signal chains in RF characterization labs. The broad frequency coverage across four families reduces the number of amplifier platforms required per lab setup.

02

Broadband Subsystem Integration

PA modules integrated into subsystems that require wideband coverage in a single mechanical form factor. Conduction-cooled baseplate architecture simplifies integration into chassis or platform enclosures.

03

OEM Amplifier Platform Development

Standard models serve as validated starting platforms for OEM programs. Engineering teams can evaluate a standard model before defining the custom adaptation scope, reducing development risk and time.

04

SDR Signal Chain Power Amplification

Wideband GaN PA modules for integration into software-defined radio platforms and signal generation chains that require significant output power across broad frequency bands.

05

Custom RF Program Starting Reference

Engineers using CorelixRF standard models as validated baselines before defining custom frequency splits, power adaptations, or mechanical re-packaging for production-level integration programs.

06

High-Power Lab Automation & Instruments

PA modules used in automated test and measurement setups, signal generation platforms, and high-power RF instrument builds where reliable wideband amplification is required with minimal maintenance.

OEM / ODM ENGINEERING

Submit Your RF Amplifier Requirement

1
Frequency & Power
✓ Done
2
Operation & Supply
✓ Done
3
Connector & Integration
✓ Done
Include thermal interface, mechanical envelope, or special requirements if relevant.
4
Quantity & Project Stage
✓ Done
Specification Summary
Updates live
Frequency Band
30–512 MHz
Output Power
100 W
Operation Mode
CW
Supply Voltage
Connector
SMA-F
Quantity
10–50 units
Project Type
Standard Model
💡
Engineering review is faster when frequency range, output power, duty cycle, voltage, connector, and cooling conditions are shared together.
Engineering team responds within 24H  ·  No chatbot  ·  No auto-reply
MANUFACTURER EVIDENCE

Why Buyers Trust CorelixRF Amplifier Programs

CorelixRF supports amplifier programs with factory-side test capability, process control, engineering communication, and documentation that help customers evaluate real purchasing risk before order confirmation.

01 / 03
RF TEST CAPABILITY
RF Test & Measurement Support
Amplifier programs are supported by test-oriented workflows for output power, gain, VSWR, thermal stability, and RF performance. Sample data and technical discussion can be provided based on project stage.
  • Output power at rated Pout and Psat
  • Gain flatness across frequency band
  • VSWR at input and output ports
  • Harmonic and spurious suppression (dBc)
  • Thermal stability under sustained CW load
  • Per-unit test records retained; sample reports available on request
Request Test Data Sample
02 / 03
QUALITY & RELIABILITY
46-Step QC Protocol
Production QC covers three phases: incoming material control, in-process PCB verification, and final stress screening before shipment. Every unit is tracked.
  • IQC: incoming GaN device and passive component verification
  • In-process PCBA visual and functional check
  • Burn-in and thermal stress screening
  • High/low temperature cycle testing
  • Vibration and mechanical integrity check
  • Per-unit traceability record retained
Request Quality Process Details
03 / 03
MANUFACTURING
Factory & Production
We are the manufacturer — not a distributor. 400 engineering and production staff, dedicated RF amplifier assembly line, scalable from prototype to production.
  • 30+ years RF electronics manufacturing experience
  • Dedicated RF PA assembly and integration line
  • Prototype to production in same facility
  • OEM/ODM customisation with full NDA support
  • Delivery capability: standard 4–6 weeks, rush on request
  • Export project handling for international buyers
Request Factory Introduction
24H
Engineering reply to every RFQ
46
Production test steps per unit
20
Standard SKUs, ready to ship
400+
Engineering and production staff
30+
Years RF manufacturing
PROCUREMENT GUIDE

5 Things to Confirm Before Buying an RF Amplifier

Most selection mistakes and procurement delays come from a handful of overlooked details. Confirm all five points before finalising model selection — or include them in your RFQ to let CorelixRF confirm compatibility for you.

01
CW or Pulse?
Confirm duty cycle, PRF, and pulse width before specifying. Peak power alone is not enough.
02
Supply Voltage
Confirm VDC range before finalising design — especially 2–6 GHz models (36–58V varies by tier).
03
Heatsink & Thermal
Provide heatsink condition if conduction-cooled. Surface flatness ≤0.05 mm required for best contact.
04
Connector & Layout
Specify connector type early. Non-standard connectors are available as OEM options with short lead time.
05
Quantity & Docs
State quantity and project stage. Mention if test data or dimensional drawings are needed for approval.
Technical Detail — Common Selection Mistakes

Psat vs P1dB

Do not assume the published output power refers to the same operating condition. Saturated output (Psat) and 1dB compression output (P1dB) are not the same. For linear applications, specify P1dB at or above your required output. For pulsed or saturated operation, Psat is the relevant limit.

CW vs Pulse Mode

Continuous-wave operation creates a very different thermal requirement from pulse operation. Peak power alone is never enough for correct model selection. Always define duty cycle, PRF, and pulse width when specifying a pulse application.

Supply Voltage Compatibility

Some higher-frequency or higher-power models — especially within the 2–6 GHz family — require different voltage windows (36–58V). Always confirm VDC range compatibility before locking your power architecture. Check the matrix VDC filter before finalising design.

Thermal Path Design

Conduction-cooled does not mean thermal design can be ignored. It means the baseplate-to-heatsink interface becomes the critical thermal path. Apply thermal interface material, ensure surface flatness ≤0.05mm, and plan heatsink capacity for the full rated dissipation.

Connector and Integration Details

Connector type, cable direction, mounting layout, and enclosure space all affect the real integration outcome. SMA and N-type are standard on CorelixRF modules. Other connector types are available as OEM options — specify early if the standard does not fit your layout.

Quotation Input Completeness

The more complete your inputs are — frequency, power, duty cycle, voltage, connector, and cooling conditions — the faster CorelixRF can recommend the right solution and confirm lead time. Incomplete RFQs add back-and-forth that delays the procurement timeline.

SELECTION GUIDES

Datasheets and Engineering Resources

Good procurement decisions are supported by technical reading. The guides below are standalone article pages — not form redirects. Use them to move from concept comparison to a more confident shortlist before submitting an RFQ.

01
Amplifier Selection
How to Choose a High Power RF Amplifier (30MHz–6GHz): Key Specs & Trade-offs
P1dB vs Psat, gain flatness, VSWR tolerance — what each spec actually means for system integration and how to use them in your shortlist decision.
Read Article
02
Thermal Design
Conduction-Cooled RF Amplifier Integration: Heatsink Interface & Derating
Thermal resistance budget for 100W–200W GaN PA modules. Interface material selection, mounting torque, derating curves, and the thermal limit boundary.
Read Article
03
Operation Mode
CW vs Pulse RF Amplifier Selection: Duty Cycle, PRF, and Peak Power Budget
CW thermal limits vs pulse peak power. How to specify PRF and pulse width for correct sizing. When standard CW models cover pulsed applications.
Read Article
04
Model Comparison
Model Comparison Guide: 30–512MHz, 300–1700MHz, 300–2700MHz, and 2–6GHz by Output Power
Side-by-side comparison of all four CorelixRF frequency families across standard output tiers. Use to identify which family best matches your system requirements before requesting datasheets.
Read Guide
05
Protection & Reliability
VSWR Protection in High-Power RF Amplifiers: How It Works & How to Validate
What VSWR ≤1.8 means in practice. How GaN devices respond to mismatch loads. Validation methods for lab and production testing.
Read Article
Sample Test Data
Request Representative Test Data Before Ordering
For engineering review projects, ask CorelixRF for representative sample test data — output power, gain, VSWR across frequency, harmonic levels — before final model shortlisting or order commitment.
Request via RFQ Form
BEFORE YOU BUY — FAQ

RF Amplifier FAQ

Questions engineers actually ask before shortlisting and ordering. If yours is not here, the CorelixRF engineering team responds directly to technical inquiries.

What is the difference between Psat and P1dB in RF amplifiers?
Psat is the saturated output level where gain collapses. P1dB is the output where gain compresses by exactly 1 dB — typically 6–10 dB below Psat. CorelixRF datasheets specify Pout at a standard operating point. For linear system design, specify P1dB at or above your required output power. For saturated or pulsed applications, Psat is the relevant limit.
What does conduction-cooled baseplate mean for installation?
Conduction-cooled modules mount to a customer-provided heatsink or chassis plate. Apply thermal interface material (≤0.1°C·cm²/W) between module baseplate and heatsink. Ensure heatsink surface flatness ≤0.05mm. No active cooling required — the module relies entirely on the thermal path through the baseplate. Contact CorelixRF for derating curves if your heatsink temperature exceeds 50°C.
CW vs Pulse operation — which should I specify?
CW operation requires stronger continuous thermal management since dissipation is sustained at full power. Pulse operation allows higher peak power than the CW rating at reduced average duty cycle. When specifying pulse, provide PRF, pulse width, and peak power required — CorelixRF will confirm whether the thermal budget allows it or recommend a derating curve for your operating condition.
What standard frequency bands and output powers are available?
CorelixRF standard amplifier families include 30–512MHz, 300–1700MHz, 300–2700MHz, and 2–6GHz. Standard output power tiers include 30W, 50W, 100W, 150W, and 200W. All standard models use conduction-cooled baseplate and are available with SMA or N-type connector. Browse the product matrix to compare full specification sets across all 20 standard SKUs.
Why does supply voltage vary across 2–6 GHz models?
Wideband S/C-band designs at different output powers use different GaN device operating points. Higher power stages require higher drain voltage for maximum efficiency. The 2–6 GHz family ranges from approximately 36–46V for the 30W model up to 44–54V for the 200W model. Always check the exact VDC range per model before designing your power supply. Use the matrix VDC filter to shortlist models compatible with your supply architecture.
Can CorelixRF provide test data with the unit?
Yes. The 46-step production test protocol generates a per-unit test record including output power, gain, VSWR, and harmonic levels at multiple frequency points. Test data packages are available on request — specify at time of ordering. Sample reports are available for review before purchase; contact the CorelixRF sales engineering team to request representative data.
What connector types are standard, and can they be changed?
Standard configurations ship with SMA (female) or N-type (female) connector, both available without lead-time impact. For other connector types — TNC, BNC, SMA-RP, or custom flange — submit a custom request. Alternative connectors are typically available with short development lead time at no additional NRE for volume orders.
What information do I need to get an accurate quote quickly?
Minimum required: frequency range (start/stop MHz), target output power (W), supply voltage range, CW or pulse requirement, and quantity. Optional but helpful: VSWR limit, connector preference, mechanical envelope, operating temperature range, and test data requirements. The more complete your inputs, the faster CorelixRF can confirm standard vs custom and quote lead time accurately.
Can CorelixRF provide sample units for engineering evaluation?
Yes. CorelixRF supports sample orders for engineering evaluation before batch purchasing commitment. Sample units are production-grade and include the same 46-step test documentation available on full production orders. Sample lead time is typically shorter than production lead time — contact the CorelixRF engineering team to confirm model availability and sample terms based on your project stage.
What information helps CorelixRF quote faster?
The single most useful input is a complete technical summary: frequency range, output power, operation mode (CW or pulse), duty cycle if pulsed, supply voltage, connector, cooling condition, quantity, and project timeline. Attaching a block diagram or specification sheet — even a rough one — allows the engineering team to confirm standard vs custom direction in one exchange rather than multiple follow-up questions. Use the file upload field in the RFQ form to share documentation directly.
Can CorelixRF modify the connector type from standard SMA or N?
Yes. SMA (female) and N-type (female) are standard and available without additional lead time impact. For TNC, BNC, SMA-RP, or custom flange configurations, submit a custom request via the RFQ form. Alternative connectors are typically available as OEM options with short development lead time and no NRE for volume programs. Specify connector requirements early — it affects housing layout review.
Can CorelixRF review a custom housing size or mechanical package?
Yes. Custom mechanical packaging is reviewed from the closest standard platform. If your system enclosure has dimensional limits, provide the maximum envelope and mounting constraints in the RFQ. CorelixRF will assess whether standard packaging fits, or propose a re-packaging option as part of the OEM review. Including a sketch or DXF of your mechanical envelope speeds up the first evaluation.
Do you provide test data before order confirmation?
Yes. Representative test data — including output power, gain flatness, VSWR, and harmonic levels across frequency — is available for review before purchase. Per-unit test records are generated during the 46-step production protocol and can be included with shipment on request. For engineering evaluation programs, contact the CorelixRF team to request sample test reports before committing to a model or quantity.
What thermal information should we provide for correct model selection?
For conduction-cooled modules, provide: heatsink material and surface flatness (≤0.05 mm required), maximum baseplate temperature under operating conditions, whether thermal interface material will be applied, and the operating duty cycle or CW condition. If your heatsink temperature exceeds 50°C under full load, CorelixRF will provide a derating curve so you can confirm the module remains within safe operating limits before ordering.
Can a standard model be used as the starting point for a custom program?
Yes — this is CorelixRF's standard approach to custom programs. Every custom review starts from the closest standard platform. This means you get a validated reference before defining modification scope, which reduces NRE cost and shortens development time. Common starting-point adaptations include: frequency band narrowing or extension, supply voltage change, connector substitution, output power adjustment, and mechanical re-packaging. Share your closest standard model and your required changes in the RFQ form.

Still have a technical question not covered above? CorelixRF engineering responds to every inquiry directly — not a chatbot, not a form auto-reply.

Send Your RF Requirement
READY TO SPECIFY

Ready to Specify? Send Your RF Requirement to CorelixRF

CorelixRF is the manufacturer. Whether you need a standard model datasheet, want to request test data before ordering, or are ready to submit a full RFQ — the engineering team reviews every inquiry directly. No chatbot, no form auto-reply.