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Keysight - 5965-8166E - Application Note :: 10 Hints for Making Better Network Analyzer Measurements

Keysight 5965-8166E Application Note :: 10 Hints for Making Better Network Analyzer Measurements

Application Note :: 10 Hints for Making Better Network Analyzer Measurements. This application note contains a variety of hints to help you understand and improve your use of network analyzers, along with a quick ...
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Application Note :: 10 Hints for Making Better Network Analyzer Measurements

Application Note :: 10 Hints for Making Better Network Analyzer Measurements.

This application note contains a variety of hints to help you understand and improve your use of network analyzers, along with a quick summary of network analyzers and their capabilities.

Overview of network analyzers
Network analyzers characterize active and passive components, such as amplifiers, mixers, duplexers, filters, couplers, and attenuators. These components are used in systems as common and low-cost as pagers, or in systems as complex and expensive as communications or radar systems. Components can have one port (input or output) or many ports. The ability to measure the input characteristics of each port, as well as the transfer characteristics from one port to another, gives designers the knowledge to configure a component as part of a larger system.

Types of network analyzers
Vector network analyzers (VNAs) are the most powerful kind of network analyzer and can measure frequencies from 5 Hz up to 110 GHz. Designers and final test in manufacturing use VNAs because they measure and display the complete amplitude and phase characteristics of an electrical network. These characteristics include S-parameters, magnitude and phase, standing wave ratios (SWR), insertion loss or gain, attenuation, group delay, return loss, reflection coefficient, and gain compression.
VNA hardware consists of a sweeping signal source (usually internal), a test set to separate forward and reverse test signals, and a multichannel, phase-coherent, highly sensitive receiver (figure 1). In the RF and microwave bands, typical measured parameters are referred to as S-parameters, and are also commonly used in computer-aided design models.

Scalar network analyzers
A scalar network analyzer (SNA) measures only the amplitude portion of the S-parameters, resulting in measurements such as transmission gain and loss, return loss, and SWR. Once a passive or active component has been designed using the total measurement capability of a VNA, an SNA may be a more cost-effective measurement tool for the production line to reveal out-of-specification components. While SNAs require an external or internal sweeping signal source and signal separation hardware, they only need simple amplitude-only detectors, rather than complex (and more expensive) phase-coherent detectors.

Network/spectrum analyzers
A network/spectrum analyzer eliminates the circuit duplication in a benchtest setup of a network and spectrum analyzer. Frequency coverage ranges from 10 Hz to 1.8 GHz. These combination instruments can be economical alternatives in design and test of active components like amplifiers and mixers, where analysis of signal performance is also needed.

Contents:

  • Hint 1. Measuring high-power amplifiers
  • Hint 2. Compensating for time delay in cable measurements
  • Hint 3. Improving reflection measurements
  • Hint 4. Using frequency-offset for mixer, converter and tuner measurements
  • Hint 5. Increasing the accuracy of noninsertible device measurements
  • Hint 6. Aliasing in phase or delay format
  • Hint 7. Quick VNA calibration verification
  • Hint 8. Making your measure ments realtime, accurate and automated
  • Hint 9. Making high dynamic range measurements
  • Hint 10. Simplifying multiport measurements

Sie haben Fragen zu dieser Thematik? Rufen Sie uns bitte an unter:

dataTec - Ihr Spezialist für Messgeräte und Prüfgeräte
Ferdinand-Lassalle-Str. 52  |  D-72770 Reutlingen

Praxiserfahren. Ehrlich. In Ihrer Nähe durch bundesweite Vertriebsbüros.

Kontakt über die Zentrale in Reutlingen:
Telefon: +49 7121 / 51 50 50  |  Telefax: +49 7121 / 51 50 10  |  E-Mail: info@datatec.de

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Application Note :: 10 Hints for Making Better Network Analyzer Measurements.

This application note contains a variety of hints to help you understand and improve your use of network analyzers, along with a quick summary of network analyzers and their capabilities.

Overview of network analyzers
Network analyzers characterize active and passive components, such as amplifiers, mixers, duplexers, filters, couplers, and attenuators. These components are used in systems as common and low-cost as pagers, or in systems as complex and expensive as communications or radar systems. Components can have one port (input or output) or many ports. The ability to measure the input characteristics of each port, as well as the transfer characteristics from one port to another, gives designers the knowledge to configure a component as part of a larger system.

Types of network analyzers
Vector network analyzers (VNAs) are the most powerful kind of network analyzer and can measure frequencies from 5 Hz up to 110 GHz. Designers and final test in manufacturing use VNAs because they measure and display the complete amplitude and phase characteristics of an electrical network. These characteristics include S-parameters, magnitude and phase, standing wave ratios (SWR), insertion loss or gain, attenuation, group delay, return loss, reflection coefficient, and gain compression.
VNA hardware consists of a sweeping signal source (usually internal), a test set to separate forward and reverse test signals, and a multichannel, phase-coherent, highly sensitive receiver (figure 1). In the RF and microwave bands, typical measured parameters are referred to as S-parameters, and are also commonly used in computer-aided design models.

Scalar network analyzers
A scalar network analyzer (SNA) measures only the amplitude portion of the S-parameters, resulting in measurements such as transmission gain and loss, return loss, and SWR. Once a passive or active component has been designed using the total measurement capability of a VNA, an SNA may be a more cost-effective measurement tool for the production line to reveal out-of-specification components. While SNAs require an external or internal sweeping signal source and signal separation hardware, they only need simple amplitude-only detectors, rather than complex (and more expensive) phase-coherent detectors.

Network/spectrum analyzers
A network/spectrum analyzer eliminates the circuit duplication in a benchtest setup of a network and spectrum analyzer. Frequency coverage ranges from 10 Hz to 1.8 GHz. These combination instruments can be economical alternatives in design and test of active components like amplifiers and mixers, where analysis of signal performance is also needed.

Contents:

  • Hint 1. Measuring high-power amplifiers
  • Hint 2. Compensating for time delay in cable measurements
  • Hint 3. Improving reflection measurements
  • Hint 4. Using frequency-offset for mixer, converter and tuner measurements
  • Hint 5. Increasing the accuracy of noninsertible device measurements
  • Hint 6. Aliasing in phase or delay format
  • Hint 7. Quick VNA calibration verification
  • Hint 8. Making your measure ments realtime, accurate and automated
  • Hint 9. Making high dynamic range measurements
  • Hint 10. Simplifying multiport measurements

Sie haben Fragen zu dieser Thematik? Rufen Sie uns bitte an unter:

dataTec - Ihr Spezialist für Messgeräte und Prüfgeräte
Ferdinand-Lassalle-Str. 52  |  D-72770 Reutlingen

Praxiserfahren. Ehrlich. In Ihrer Nähe durch bundesweite Vertriebsbüros.

Kontakt über die Zentrale in Reutlingen:
Telefon: +49 7121 / 51 50 50  |  Telefax: +49 7121 / 51 50 10  |  E-Mail: info@datatec.de


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