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8–12 GHz 100 W GaN Amplifier Module for EMC and Test

8–12 GHz GaN amplifier module: 100 W PSAT, 50 dB gain, 28 VDC, 50 Ω, over-temperature/current protection, SMA input and N-K output.

Technical Specifications

ParameterSpecificationNotes
Frequency range8000–12000 MHzOperating band; electrical table min/max 7800–12300 MHz
Output power100 W typical PSAT49.5 W min / 50.5 W max at PSAT, +28 VDC, 25°C, Pin=0 dBm, 50 Ω
Supply voltage28 VDCOperating voltage
Current draw8 A quiescent; 15.5 A at 50 WOver-current shutdown above 20 A
Modulation sourceExternal RF inputNo internal modulator described in datasheet
Analog scan speedN/ANot a specified function of this amplifier
Input / output impedance50 ΩInput and output matched
Protection LEDsTemperature/current alarm outputs, LVTTL 0/+3.3 VNo dedicated LED listed; alarm status via pins
Operating temperature-20°C to +50°CNon-operating -25°C to +65°C; humidity 95% non-condensing
Dimensions (L×W×H)160 × 120 × 25 mm6.30 × 4.72 × 0.98 in maximum
Weight1.0 kg2.2 lb maximum
Base materialGaN devices with chip-and-wire constructionHousing material not stated

Product Details

The GaN Amplifier Module is a multi-octave GaN power amplifier for 8–12 GHz. It delivers 100 W typical saturated output power from a 160 × 120 × 25 mm housing. The target is straightforward: broadband coverage with enough margin for EMC, jamming, and test benches. GaN devices and chip-and-wire construction keep power density high without adding bulk. Input and output are matched to 50 Ω, so integration is mostly a matter of DC, RF, and cooling.

8–12 GHz 100 W GaN Amplifier Module for EMC and Test

Broadband RF performance

Across 8–12 GHz, power gain at PSAT is about 50 dB with ±1 dB flatness. Input return loss is -10 dB. Harmonics are -50 dBc at 100 W, and spurious signals are -60 dBc at PSAT. The datasheet curve plots output power, DC current, and PAE at room temperature with Pin = 0 dBm. At 28 VDC, quiescent current is 8 A. Dynamic current is 15.5 A at 50 W, and power-added efficiency is 22–30%. The electrical table gives 7800–12300 MHz min/max and 49.5–50.5 W min/max at PSAT, so unit-to-unit spread is tight. This is useful when one amplifier must cover several bands without retuning.

Protection and control

The enable pin accepts TTL logic high (3.3 V) and is internally pulled low. The enable line is pulled low internally, so a high level is required to turn the amplifier on. The temperature alarm is LVTTL 0/+3.3 V: 0 V means normal, +3.3 V means above +85°C. Above +85°C the GaN Amplifier Module shuts down; below +65°C it turns on again. The current alarm is also LVTTL 0/+3.3 V. When current exceeds 20 A, the module shuts down and stays off until the user repowers it. These alarm pins are easy to wire to a system controller.

Mechanical and interface notes

RF input is SMA female; RF output is N-K female. DC and control use a hybrid 7W2 mixed-contact D-sub male connector. The DC interface uses A1 for VDD, A2 for ground, pin 1 for enable, pin 2 for temperature alarm, pin 3 for current alarm, pin 4 for NC, and pin 5 for ground. The housing has six Ø4.2 mm through-holes. Maximum weight is 1.0 kg. Operating temperature is -20°C to +50°C; non-operating is -25°C to +65°C, with 95% non-condensing humidity. The absolute maximum RF drive without damage is +10 dBm. At 100 W output, the load can see 5:1 VSWR across all phase and amplitude conditions. Thermal shutdown is 85°C ±5°C.

Where it fits

This is a practical GaN Amplifier Module for EMC rooms, lab benches, and system integrators that need 8–12 GHz coverage at 100 W class. It is not a narrowband replacement; the value is the wide instantaneous band, 50 Ω match, and built-in protection. Use a clean 28 VDC supply, respect the 20 A current limit, and keep airflow over the housing. For bench use, start at Pin = 0 dBm and check the alarm lines before full drive. Drive it from an external RF source; there is no internal modulator. Keep the load within 5:1 VSWR, because protection may trip outside that range. The alarm outputs can report status to a controller. With proper mounting and thermal design, the module supports repeated high-power testing and jamming tasks.

Frequently Asked Questions

Q: What frequency range and output power does it offer?
A: It covers 8–12 GHz and delivers 100 W typical PSAT, with 49.5–50.5 W min/max at 25°C, +28 VDC, Pin=0 dBm, 50 Ω.
Q: What supply and current does it need?
A: It runs from 28 VDC. Quiescent current is 8 A, and dynamic current is 15.5 A at 50 W. Current above 20 A triggers shutdown and requires repowering.
Q: How do the temperature and current alarms work?
A: Both give LVTTL 0/+3.3 V outputs. Over-temperature shutdown occurs above +85°C and auto-restarts below +65°C. Over-current shutdown does not auto-restart; the user must repower.
Q: What connectors and cooling should I plan for?
A: RF input is SMA female, output is N-K female, and DC/control is a 7W2 D-sub. Keep airflow over the 160 × 120 × 25 mm housing; operating range is -20°C to +50°C.

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