RF Globalnet

INDUSTRY INSIGHTS

9 Real-World Variables That Destroy Oscillator Accuracy (And How to Measure Them)

Oscillator drift remains one of the most critical threats to precision timing in high-performance communication systems. In tightly controlled lab environments, performance often appears ideal, but real-world conditions quickly expose hidden weaknesses. Factors like thermal shifts and electromagnetic interference can cause subtle frequency deviations that accumulate over time.

Sensing Beyond Limits: Transforming User Experience With UWB Radar
Empowering The Next Generation With Ultra-Wideband: A University's Hands-On Innovation Journey

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FEATURED SOLUTIONS

8 - 12 GHz, 4.0 KW Solid State High Pulse Power Amplifier: AMP40054
The AMP40054 is a high‑power X‑Band pulse amplifier built for the most demanding EMI/RFI, HIRF, and radar test environments.
6.0 - 18.0 GHz, 10 W Solid State High Power Amplifier: AMP20035
The AMP20035 is a 6–18 GHz solid-state Class A/AB amplifier delivering 10 W minimum output power with 40 dB gain and ±4 dB flatness.
6.0 - 18.0 GHz, 400 W Solid State High Power Amplifier: AMP20178
Spanning an instantaneous 6.0–18.0 GHz bandwidth, this high-power microwave amplifier is engineered for demanding EMI/RFI testing, laboratory validation, and CW or pulsed communication applications.
0.5 - 6.0 GHz, 150 W Solid State High Power Amplifier: AMP20110
Covering an ultra-wide 0.5–6.0 GHz frequency range, this high-performance GaN power amplifier delivers reliable, broadband performance across P, L, and S bands for EMI/RFI testing, laboratory validation, and CW or pulsed communication applications.
0.8 - 3.2 GHz, 1000 W Solid State High Power Amplifier: AMP20114
Engineered for demanding EMI/RFI, EMC, EW, radar, and communications environments, this 0.8–3.2 GHz high-power amplifier delivers exceptional linearity, bandwidth, and reliability in a compact rack-mounted platform.

FEATURED VIDEOS

Introducing The FSWX Signal And Spectrum Analyzer
Discover the FSXW—the first signal and spectrum analyzer to feature multichannel spectrum analysis, cross-correlation (X-correlation), and I/Q preselection.
Simulate Dynamic Wireless Mobility With Wireless InSite
Wireless InSite enables engineers to simulate time-based mobility, lunar propagation, and wideband ray-tracing for analyzing moving devices, vehicles, radar coverage, and lunar RF systems.
Ceramic Capacitors
Mark Simpson from Quantic Electronics discusses gap and ceramic capacitor technology at IMS 2025.

FEATURED WEBINARS

Minimizing Outgassing & Multipaction Risks In RF Filters For Space

Explore how to mitigate outgassing and multipaction risks in space-grade RF filters through smart material choices, design strategies, and rigorous testing to ensure mission reliability and performance.
Model And Simulate Dynamic RF Scenarios Using Time-Based Mobility

Explore how to simulate dynamic RF environments, model antenna interactions with people and vehicles, and analyze performance metrics for advanced wireless applications.
Time-Based Mobility Of RF Systems In Wireless InSite Release 4.0

Learn how Wireless InSite 4.0 simulates dynamic RF environments with moving transceivers, on-body propagation, lunar terrain modeling, and time-based outputs for next-gen wireless systems.