SMP Female Termination – RHT-628-2033
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Frequency Range: Operates effectively across DC to 18 GHz for broad microwave application support.
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50-Ohm Impedance: Delivers precise signal matching with a low VSWR of 1.3 MAX to minimize signal reflection.
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Durable Construction: Features a gold-plated beryllium bronze contact and brass bronze outer conductor built for 500+ mating cycles.
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Power Handling: Handles up to 0.5W continuous power at 25°C and peak power up to 100W (5 μs pulse width).
Product Specification
| Connector Type | Jack |
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|---|---|---|---|
| Contact Type | Female Pin |
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| Contact Material | Beryllium Bronze |
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| Contact Finish | Gold Plated |
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| Insulator Material | PTFE |
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| Impedance | 50 ohm |
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| Frequency Range | DC-18GHz |
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| VSWR | 1.3 MAX |
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| Dielectric Withstanding Voltage | 1000 V |
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| Insulation Resistance | 5000MΩ Min |
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| Temperature Range | -55°C to +125°C |
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| Connector Type | Jack |
Contact Type | Female Pin |
| Contact Material | Beryllium Bronze |
Contact Finish | Gold Plated |
| Insulator Material | PTFE |
Impedance | 50 ohm |
| Frequency Range | DC-18GHz |
VSWR | 1.3 MAX |
| Dielectric Withstanding Voltage | 1000 V |
Insulation Resistance | 5000MΩ Min |
| Temperature Range | -55°C to +125°C |
| Outer Conductor Material | Brass Bronze |
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|---|---|---|---|
| Outer Contact Plating | Gold Plated |
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| Insertion Loss | ≤0.06*√F (GHz) dB |
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| Mating Cycles | 500 Cycles mini |
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| Average Power | 0.5W at 25°C |
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| Peak Power | 0.4% duty cycle), 100W (5μ sec pulse width |
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| Outer Conductor Material | Brass Bronze |
Outer Contact Plating | Gold Plated |
| Insertion Loss | ≤0.06*√F (GHz) dB |
Mating Cycles | 500 Cycles mini |
| Average Power | 0.5W at 25°C |
Peak Power | 0.4% duty cycle), 100W (5μ sec pulse width |
| Connector Type | Jack |
|---|---|
| Contact Type | Female Pin |
| Contact Material | Beryllium Bronze |
| Contact Finish | Gold Plated |
| Outer Conductor Material | Brass Bronze |
| Outer Contact Plating | Gold Plated |
| Insulator Material | PTFE |
| Impedance | 50 ohm |
| Frequency Range | DC-18GHz |
| VSWR | 1.3 MAX |
| Insertion Loss | ≤0.06*√F (GHz) dB |
| Dielectric Withstanding Voltage | 1000 V |
| Insulation Resistance | 5000MΩ Min |
| Mating Cycles | 500 Cycles mini |
| Temperature Range | -55°C to +125°C |
| Average Power | 0.5W at 25°C |
| Peak Power | 0.4% duty cycle), 100W (5μ sec pulse width |
RF coaxial loads are basic components in the RF signal chain, typically placed at the end of the line and also known as RF terminators. Their main function is to fully absorb microwave energy from the transmission line, thereby improving circuit matching, preventing unwanted reflections, and minimizing interference. In addition, they can control power levels, serve as decoupling elements, act as reference standards, and help reduce interference in radar systems.
Product Features
- Core functions: Efficiently absorbs microwave energy, improves circuit matching, reduces reflections and interference, and ensures overall system stability.
- Versatile and adaptable: Controls power, isolates interference, supports calibration testing, reduces radar system interference, and adapts to multiple application scenarios.
- Reliable performance: Standard impedance compatibility, low VSWR for improved efficiency and signal quality, supports a wide range of power levels, frequencies, and temperatures, ensuring stable and dependable operation.
Application Scenarios
- Wireless communication: devices such as base stations, mobile phones, satellite communications, etc.
- Instrumentation: network analyzers, signal generators, etc.
- Aerospace: communication, navigation, and radar systems for aircraft.
RF Coaxial Loads FAQ
The main ones are frequency range, power capacity, and impedance matching.
No. They need to be used with transmission lines that have corresponding connectors.
It can cause signal reflections, which may reduce efficiency or even damage the equipment.
Common types include fixed and adjustable loads. They can also be categorized as low, medium, or high-power loads based on power rating.
With normal use, service life typically ranges from a few years to over ten years, depending on the operating environment.

