CorelixRF | RF Systems Solutions
30–512 MHz RF Power Amplifiers | 30W–200W VHF/UHF Factory-Direct Modules | CorelixRF
Factory-Direct VHF/UHF RF Power Amplifier Manufacturer

30–512 MHzRF Power Amplifiers

Factory-direct 30–512 MHz RF power amplifiers from 30W to 200W, built on a 28VDC architecture with conduction-cooled design, documented RF validation, and engineering support for VHF/UHF system integration and lab evaluation.

  • 30–512 MHz broadband coverage
  • 30W / 50W / 100W / 200W standard models
  • 28VDC native architecture
  • Conduction-cooled mechanical design
  • Unit-level RF validation available
  • Custom sub-band review supported
PRODUCTION-READY PLATFORM
CorelixRF 30–512MHz HZ30512 Series RF Power Amplifier
MANUFACTURER Factory-Direct RF Production
VALIDATION Unit-Level RF Test Data
ARCHITECTURE Native 28VDC Platform
THERMAL Conduction-Cooled Design
SUPPORT OEM / Custom Band Review
RESPONSE Engineering Feedback Within 48 Hours
WHY CORELIXRF

Why CorelixRF for 30–512 MHz VHF/UHF Projects

This series is built for buyers who need more than nominal output power. CorelixRF supports practical VHF/UHF deployment with standard wideband models, documented RF validation, and engineering review before quotation.

01 //

Factory-Direct Engineering Communication

You communicate directly with the team responsible for product design, validation, and production — reducing delay between technical review and quotation.

02 //

28VDC-Native Wideband Architecture

The platform is designed around a 28VDC rail commonly used in industrial and vehicle-based environments, simplifying system-side power planning.

03 //

Documented RF Validation

Unit-level RF verification and supporting documentation are available based on model scope and project requirements, helping reduce procurement uncertainty.

04 //

Custom Band & Integration Review

Where application performance requires narrower band optimization, connector changes, or system-side matching review, engineering feasibility feedback is available before commitment.

INTEGRATION RISK REDUCTION

Reducing Integration Uncertainty Before Deployment

Wideband VHF/UHF procurement often fails at the integration stage, not at the quotation stage. This platform is designed to reduce ambiguity before hardware enters your system.

COMMON PROCUREMENT RISKS

  • Ambiguous CW versus pulse power definitions
  • No unit-level validation data before shipment
  • Unclear thermal path under sustained load
  • Insufficient supply current visibility at full output

HOW CORELIXRF ADDRESSES THEM

  • Defined CW operating reference for sustained use
  • Validation documentation available by model and project scope
  • Conduction-cooled baseplate design for practical thermal integration
  • Transparent current budgeting for PSU planning and system review
MODEL SELECTION

30–512 MHz Model Selection Guide

Use the matrix below to compare standard models by output class, gain, current demand, interface, and integration fit. Send your project inputs for a direct engineering recommendation.

Model Frequency Range Output Power Gain @ 512 MHz Max Current Supply Connector Best Fit / Typical Use Action
HZ30512-30 30–512 MHz 30W CW 45 ±1.5 dB ≤4 A 28 VDC SMA / N-Type Compact lab evaluation and lower-power VHF/UHF integration
HZ30512-50 30–512 MHz 50W CW 47 ±1.5 dB ≤9 A 28 VDC SMA / N-Type Entry wideband deployment with moderate current budget
HZ30512-100 30–512 MHz 100W CW 50 ±1.5 dB ≤18 A 28 VDC N-Type (Default) Balanced standard platform for most integration projects
HZ30512-200 30–512 MHz 200W CW 53 ±1.5 dB ≤30 A 28 VDC N-Type (Default) High-power broadband transmit chain and demanding field deployment
CUSTOM OEM Sub-band / Define Define Watts Optimized TBD 28 VDC Custom Config Sub-band optimization, improved flatness, or project-specific configuration Custom Review

Published values are standard model reference figures. Final selection should be confirmed against operation mode, supply budget, thermal conditions, and project-specific frequency requirements.

SYSTEM INTEGRATION

Mechanical and Thermal Integration Reference

For VHF/UHF projects, thermal path and power architecture are as important as RF output. This platform is designed for practical system-side integration review before quotation.

28VDC Platform

Native 28VDC design supports easier integration into industrial, mobile, and vehicle-side power environments without additional conversion stages.

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Conduction-Cooled Baseplate

The baseplate is designed for direct thermal interface with the customer-side chassis or cold plate, supporting more predictable heat transfer under sustained load.

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Connector Reference

Standard RF interface and control-side arrangements are available for review before order confirmation. Custom connector configurations can be discussed during engineering intake.

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Drawing Support

Mechanical drawings and integration reference materials can be requested during project evaluation to support layout planning and chassis design.

USE CASES

Typical Project Scenarios

This platform is intended for projects that need broadband VHF/UHF power without the complexity of multiple narrowband amplifier stages.

Communication Test Platforms

Supports broadband lab evaluation and frequency-agile bench setups where documented gain and predictable current draw matter during system planning.

// Why CorelixRF: Stable gain consistency across 30–512 MHz range. Unit-level test records available.

OEM System Integration

A practical wideband power stage for projects using 28VDC architecture and conduction-based mechanical mounting in industrial and mobile platforms.

// Why CorelixRF: Customizable sub-band matching. Factory-direct engineering review before order.

Laboratory RF Evaluation

Useful for EMC pre-compliance, antenna evaluation, and RF subsystem testing where repeatable unit-level data improves comparison and documentation.

// Why CorelixRF: Repeatable per-unit test data. Sample report format available at RFQ stage.

VHF/UHF Transmit Chain Integration

Serves as the high-power stage in broadband transmit-side development where a single wideband architecture reduces switching complexity and system overhead.

// Why CorelixRF: Low harmonic output. Hardware VSWR protection for system-side safety.
MANUFACTURING EVIDENCE

Manufacturing Evidence Behind the Platform

This series is supported by in-house validation, production control, and delivery documentation intended for engineering-led procurement.

RF bench verification test
RF Bench Verification
RF validation completed before shipment using calibrated test instrumentation.
Thermal and stress observation
Thermal / Stress Check
Operational stress and thermal observation confirm stable output behavior under load.
In-house controlled assembly
In-House Assembly
Controlled assembly workflow supports repeatability across standard and project-specific builds.
Test records and documentation package
Documentation Package
Test records and delivery documentation available based on model scope and project requirements.
DATA SUPPORT

Documentation and Data Support

Technical review often starts with documentation. This series can be supported with model-specific datasheets, sample report formats, and integration reference materials.

Need more than a standard datasheet? Include your frequency target, output requirement, and evaluation purpose in the enquiry form for a more relevant document package.
FAQ

Project and Procurement FAQ

Technical Questions

What is the recommended PSU headroom for this platform?

We generally recommend sizing the power supply with appropriate headroom above maximum current demand so the voltage rail remains stable under load. Final guidance depends on model and operation mode. Please include your supply configuration in the engineering review request.

Can the amplifier be optimized for a narrower frequency band?

Yes. Narrower band definition may allow better gain flatness or application-specific performance, depending on project requirements. Engineering feasibility feedback is available before commitment.

Is this platform suitable for continuous-duty use?

Model suitability depends on operation mode, thermal path, and installation conditions. Share your duty cycle and cooling setup for technical confirmation. CW-rated models are defined for sustained operation under proper thermal interface.

How does VSWR protection operate?

Hardware-level sensors monitor reflected power. If VSWR exceeds safe levels, drive power is automatically reduced to prevent device damage. Specific protection logic can be reviewed during the engineering intake.

Procurement Questions

Is unit-level validation data available before shipment?

Yes. Unit-level RF verification and supporting documentation are available based on model scope and project requirements. Please request this during RFQ review so we can confirm scope and format.

Can I request a sample test report format before order?

Yes. A sample report format can be shared during the RFQ stage so your team can review the data structure and acceptance logic before committing to procurement.

What information is needed for engineering review?

Please provide your target frequency range, power level, operating mode (CW / pulse), available supply voltage, thermal interface conditions, quantity, and delivery expectation. This allows us to give a relevant technical response.

What is the lead time for standard models?

Lead time depends on model, quantity, and customization scope. Include your timing requirement in the RFQ for an accurate response. Engineering review does not affect standard delivery scheduling.

Can I request a sample before batch order?

Yes. Sample evaluation can be discussed during engineering review based on model availability, validation scope, and project stage. Please indicate your sample requirement in the intake form.

Can mechanical drawings be reviewed before order confirmation?

Yes. Mechanical and integration reference materials can be shared during technical review to support system-side layout and thermal planning before any order commitment.

ENGINEERING INTAKE

Start Your 30–512 MHzEngineering Review

Send your target band, power requirement, operation mode, supply conditions, and thermal interface details. Our engineering team will review feasibility and recommend a suitable standard model or customization path.

  • Standard and custom review available
  • Sample report and document support
  • Technical feasibility before quotation
  • OEM / sub-band optimization support
  • Engineering response within 48 hours