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High-power RF systems
Custom RF amplifiers, generators and HF power chains for demanding duty cycles.
RF engineering · prototyping · production
From RF concept
to validated hardware.
High-power RF product development for equipment manufacturers and engineering teams—from a new design or difficult prototype to validated, production-ready hardware.
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What we build
Serious RF needs
the whole system.
High-power RF only works when the signal path, control logic, mechanics and thermal design are developed together.
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Signal-path hardware
Low-loss combiners, couplers and low-pass filters designed for the complete system.
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Embedded control
MCU firmware, monitoring and protection for dependable RF operation.
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Product integration
Electrical, thermal and mechanical design through enclosure integration and production transfer.
Specialist RF work
- CO₂ laser RF13.56 MHz
- Driver architecture through impedance and network matching.
- Pulse amplifiersPULSE
- Fast and slow pulse behavior designed around the application.
- IntermodulationIMD3
- Linearity, IMD3 analysis and performance optimization.
- High-power HFHF
- Power conversion, combining and protection in the HF band.
ON-SITE LABMeasure. Learn. Improve.
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Inside the lab
The tools to
prove the design.
Assembly and measurement sit beside the design team, turning every test into the next engineering decision.
Assembly & workshop
In-house SMT assembly, fixtures and enclosures.
Measurement & verification
RF characterization, fault analysis and documented checks.
High-power testing
Rated loads for stress and endurance testing.
Simulation & software
RF models and embedded control tools.
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Engineering tools
Match a load.
Size a dipole.
Calculate an ideal match or size a half-wave dipole. Switch to Explore to see how matching and resonance behave.
Impedance matching
Your load. A matching network. Clear component values.
+jX−jXMATCH
Build from load → source
- 1Shunt inductor1.259 µHAcross the load
- 2Series inductor593 nHIn the signal path
Input VSWR 4.16 → 1.00Network input 50 + j0 ΩIdeal result at 13.56 MHz
Ideal values at one frequency. Verify on real hardware.
Model assumptions
Assumes the entered load at that frequency; values are rounded. Excludes losses, parasitics, bandwidth and power ratings. Matching principles ↗
Antenna resonance
Half-wave dipole dimensions and resonance, up to 1 GHz.
Illustration · not to scale
- Total length
- 1.424 m
- Each arm
- 71.20 cm
- Est. resonance
- 100 MHz
Free-space wavelength 2.998 m
First-resonance estimate. Verify and trim on real hardware.
Model assumptions
L = k × c / (2f), for a straight, centre-fed dipole; k defaults to 0.95. Excludes wire diameter, insulation, height, surroundings and feed-line effects. At UHF, small dimensional and feed-point changes matter. Animation is illustrative, not a field simulation. Dipole principles ↗
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How we work
A clear path
from brief to build.
Five stages, with a clear deliverable at each handoff.
01
Define
Requirements, interfaces and real operating conditions.
Requirements map02
Engineer
RF, electronic, mechanical and embedded design.
Design review03
Build
Rapid prototypes and in-house SMT assembly.
Working prototype04
Validate
Measurement and high-power testing up to 40 kW.
Test evidence05
Transfer
Source files, documentation and engineering support.
Source packageWays to work with us
Discuss your project Turnkey developmentSubsystem designValidationConsultationHardware rental
A technical conversation starts here
Tell us where
the RF gets difficult.
Tell us about the application and the RF challenge. Share only what you’re comfortable disclosing.
Email Tugicom