The active probes of the TETRIS® series offer a wide dynamic measurement range of ±8V and up to 2.5GHz bandwidth. With a very high input resistance of 1 MΩ and a low input capacitance of 0.9 pF, TETRIS® series probes are ideal for a wide range of low and high frequency measurements. Individual contacting options, including the unique in-line probing system for multi-contacting adjacent pin connectors in 2.54mm pitch, and the universal BNC connector for measurement instruments with 50Ω input make the active probe TETRIS® series universally applicable in every lab.
All TETRIS® probes are inclusive one power supply PS-01 with adapters for EU, UK, US, AUS for 100V to 220V mains.
The cable length of 1.3m can be customized on request.
Key features:
1. Bandwidth up to 2.5 GHz: addresses high-frequency signal challenges
The maximum bandwidth of the PMK active probe Tetris series can reach 2.5 GHz; this feature enables excellent performance in high-frequency signal detection. Whether for high-speed data transmission in communication systems or signal analysis in high-speed electronic equipment, the probe provides a stable response. Its wide bandwidth not only ensures measurement accuracy but also effectively avoids the influence of high-frequency interference on measurement results.
2. Input impedance greater than 1 MΩ: suitable for high-impedance loads
The input impedance of the PMK active probe Tetris series is greater than 1 MΩ; this feature enables it to adapt to high-impedance load environments. In some industrial equipment or electronic circuits, high-impedance loads are a common configuration, and the probe's high input impedance design can effectively reduce charge discharge and reflection, ensuring stable signal transmission. This design makes the probe perform excellently in high-impedance load measurements.
3. Input capacitance of 0.9 pF: optimized signal transmission
The input capacitance of the probe directly affects signal transmission quality. The input capacitance of the PMK active probe Tetris series is 0.9 pF; after precision adjustment, it can form good impedance matching with cables and probes of different lengths, thereby reducing signal distortion and interference. This design enables the probe to maintain high-precision measurement even with long cables or in complex environments.
4. Dynamic measurement range of ±8 V: suitable for voltage measurement
The dynamic measurement range of the PMK active probe Tetris series is ±8 V; this specification enables excellent performance in voltage measurement. Whether for precise measurement in low-voltage environments or complex signal analysis at medium voltages, the probe provides reliable measurement results. Its wide dynamic range makes it suitable for various voltage measurement scenarios.
5. Maximum input voltage up to 20 V
In live measurements, safety and reliability are key. The maximum input voltage of the PMK active probe Tetris series can reach 20 V, meeting measurement needs in low-voltage high-speed environments. Its 20 V voltage withstand capability not only ensures measurement safety but also avoids measurement errors caused by voltage fluctuations or transient variations.
6. Equipped with multiple probe accessories for various measurement environments
To meet the needs of different scenarios, the PMK active probe Tetris series provides multiple accessories, and users can select and combine them according to actual needs. For example, cables of different lengths, adapters, connectors, etc., can meet long-distance measurement, different voltage level measurement, and installation needs in complex environments. This flexibility enables the probe to perform excellently in power systems, industrial equipment, electronic equipment, and other fields.
7. High dynamic performance: suitable for rapidly changing signals
The PMK active probe Tetris series has excellent dynamic performance and can respond quickly to signal changes. Its fast response time and low-power design make it perform excellently in dynamic measurements, suitable for rapidly changing signal sources, such as measurements of high-frequency pulses or transient signals.
Like Sonic, it belongs to the same type of probe, but its bandwidth is lower than that of Sonic, its input impedance is smaller, and its input capacitance is larger; it can be said to be a lower-tier replacement product for Sonic.
