Maury MW - VNA Calibration Standard - Open Circuit Termination Series
- Calibration-grade metrology standards
- Used for VNA calibration and/or calibration validation
Shielded, coaxial opens are used in the calibration of vector network analyzers to provide a nominal 180° phase offset from a compatible reference short over a wide range of frequencies. At these frequencies, open circuit terminations are inherently imperfect. Shielding the open essentially eliminates radiation loss, but creates a residual frequency-sensitive capacitance. An accurate knowledge of the open’s effective capacitance is essential to an accurate calibration of the analyzer. Maury opens are characterized for effective capacitance versus frequency by means of a fourth order polynomial curve fit, and the nominal capacitance coefficients are provided with each unit.
|
Frequency Range |
Reflection Coefficient |
|---|---|
| DC to 50 GHz | 0.98 to 0.995 |
More Product Information
65 ppm AC/DC multifunction calibrator designed specifically for calibration of 3½ and 4½ digit multimeters. 1050 V, 20.5 A, resistance, capacitance and temperature packed inside ultra portable, 11 kg body.
- Compact, light, ideal for onsite calibrations
- 1050 V, 20.5 A, resistance, capacitance, TC, RTD and frequency
- Basic accuracy 60 ppm
- All-round calibrator for 3.5 and 4.5 digit multimeters
- Automated Absolute and Additive (Residual) Measurements
- Real Time Cross Correlation
- Only analyzer available that allows actual noise floor measurement
- Unparalleled analog performance
- Repeatable data
The HA7162D Real Time Phase Noise Analyzer delivers proven accuracy, high reliability, automation and flexibility. The real time engine covers the full measurement bandwidth with extremely fast measurement speeds to reduce product development time and optimizes ATE manufacturing throughput.
- Output White Gaussian noise
- Output power up to +30 dBm
- 127 dB of attenuation; 0.1 dB step size
- Units > 2 GHz have total attenuation of 79.9 dB
- Low distortion signal path
- Power 115 VAC, 60 Hz
- Noise attenuator accuracy: ±0.2 dB or 0.5% at 1 – 500 MHz ±0.2 dB or 1% at 0.5 – 1.0 GHz ±0.3 dB or 2% at 1 – 2 GHz
- Standard connectors SMA female
- 7” touch screen display
- Dimensions: 17.25 in. wide x 6.50 in. including feet, high x 19.50 in. deep
- Removable hard drive for added security
- Operating Temperature: -10° to +65°C
- Calibration-grade metrology standards
- Used for VNA calibration and/or calibration validation
A precision fixed termination (or load) consists of an immovable, (fixed) termination which, when mated to the end of a trans-mission line or cable, absorbs nearly all of the signal energy traveling toward it. An ideal “matched” condition exists when a termination with an impedance value of Z0, is connected to the end of a transmission line or cable that also has a characteristic impedance of Z0. Such an ideal “matched” condition (one with no mismatch between the termination and its mated line or cable) is critical if a voltage standing wave ratio (VSWR) of 1.0:1 is to be achieved in a system with a 50 or 75 ohm impedance value. Simply put, the more closely the 1.0:1 ratio is approached, the more accurate the measurements that can be made from a system.
- 6 GHz, 8 GHz, 18 GHz and 40 GHz RF Power Sensors
- Up to 195 MHz video bandwidth with 3 ns rise time
- Real-Time Power ProcessingTM technology with zero measurement dead time
- 100,000 measurements per second
- Power Analyzer Suite advanced measurement and analysis software
- Crest factor, CCDF and statistical measurements
- 10 GS/s effective sample rate
- 100 MS/s continuous sample rate
- Synchronized multi-channel measurements
Not all amplifiers are created equal, so how can you be certain that an amplifier will work for your needs? You deserve to be confident that the amplifiers used with your test-and measurement lab benches will meet the requirements of your specific applications, are reliable, and are equally well-supported pre-and post-sale. When it comes to application expertise, reliability and support, there is no company that does it better than Maury.
Three Probe Technologies
- Infinity Probe: best for Al (Si)
- ACP Probe: best for AU (III-Vs)
- |Z| Probe: robust solution (long lifetime)
- Precision contact on a wide variety of materials from 26 GHz to 67 GHz
- Accurate results with excellent crosstalk
- Matching cables and substrates included
Precise Contact Solution
- RF chuck ±3 μm surface planarity
- Unique 500 μm platen contact/ separation stroke with ≤± 1 μm accuracy for repeatable contact
- Precision probe alignment
- Consistent contact force and overtravel
- Stable contact performance
WinCal Calibration Software
- Exclusive 1-, 2-, 3-, and 4-port on-wafer calibration algorithms
- Automated calibration monitoring
- Unique measurement & analysis methods
- Accurate S-parameter measurements
- Automatic calibration setup for higher efficiency
- Fast and easy data interpretation and reporting
- Capture/display/analyze peak and average power
- Frequency range from 4 kHz to 40 GHz
- Industry-leading video bandwidth (195 MHz) and rise time (3 ns)
- Industry-leading 100,000 measurements per second
- Industry-leading 100 ps time resolution
- Synchronous multi-channel measurements (up to 4 channels)
- Sensors can be used as standalone instruments
Not all amplifiers are created equal, so how can you be certain that an amplifier will work for your needs? You deserve to be confident that the amplifiers used with your test-and measurement lab benches will meet the requirements of your specific applications, are reliable, and are equally well-supported pre-and post-sale. When it comes to application expertise, reliability and support, there is no company that does it better than Maury.
Maury Microwave
Maury Microwave is a pioneering leader in the design and manufacture of precision RF and Microwave calibration, test & measurement, and modeling solutions that are powering global efforts toward a more secure, more connected, future.
Maury Microwave offers Measurement and Modeling Device Characterization Systems and Services including nonlinear passive, active and hybrid-active fundamental and harmonic load pull, non-50Ω X-Parameter modeling, pulsed IV Pulsed s-parameters and compact transistor modeling, and patent-pending ultra-fast/accurate noise parameters.