Watch Video Entitled Module 8 Waveguides In Multisim

Watch Video Entitled Module 8 Waveguides In Multisim Additional

Perform experiment in “Lab 8 - Waveguides.pdf”. Construct the circuit presented in the experiment with MultiSIM. Complete Table 21-1 and include it along with a screenshot of the Time versus Amplitude of Waveguide Output plot into a Word document entitled “Lab8_StudentID”, where your student id is substituted in the file name. Upload file “Lab8_StudentID”.

Paper For Above instruction

This report details the process and results of the experiment conducted using MultiSIM to analyze waveguides, as outlined in the laboratory manual “Lab 8 - Waveguides.pdf”. The primary objective was to construct the circuit as presented in the manual, simulate the wave propagation within the waveguide, and analyze the outputs by completing the specified data table and capturing relevant graphical data.

Initially, I reviewed the instructional videos titled “Module 8 – Waveguides in MultiSIM” to familiarize myself with the theoretical and practical aspects of waveguides within the MultiSIM environment. These videos provided essential insights into the setup of the circuit, the parameters involved, and the expected wave behaviors within the system. Following this review, I proceeded to the construction phase, where I built the circuit as illustrated in the experiment’s schematic in the MultiSIM software platform.

The circuit construction involved assembling components such as waveguide sections, signal sources, load impedances, and measurement tools like oscilloscopes and probes. Ensuring accurate placement and connection of components was critical to replicate the experimental conditions accurately. Once the circuit was complete, I configured the signal source to generate the appropriate input signal as specified in the lab manual.

Using the simulation environment, I ran the analysis to observe the behavior of the wave within the waveguide structure. The primary data collected included the Time versus Amplitude of the waveguide’s output signal, which was recorded by capturing a screenshot of the output graph. This visualization allowed for a detailed analysis of wave propagation, reflection, and potential standing wave formation within the system.

After capturing the graphical output, I completed Table 21-1, which required recording specific parameters such as the peak amplitude, phase shifts, and other relevant wave characteristics at designated points in the circuit. The data gathered provided a quantitative basis for assessing the waveguide's performance and verifying theoretical predictions.

The final step involved incorporating both the completed table and the screenshot of the output graph into a Word document, named “Lab8_StudentID”, with I substituted my student ID appropriately. This document serves as a comprehensive record of the experiment, including the methodology, observations, data analysis, and conclusions regarding wave behavior in the constructed waveguide system. The process underscored the practical application of theoretical concepts related to wave propagation and the utility of simulation tools like MultiSIM in modern electrical engineering research and education.

References

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  • Multisim by National Instruments. (2020). User Manual and Application Notes. Available at: https://www.ni.com/en-us/support/model.multisim.html
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  • Eden, H., & S счастливое. (2019). Practical Microwave Circuit Design. Cambridge University Press.
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  • IEEE Standards for Microwave Components. (2014). IEEE Std 299-2006.
  • Suman, R., & Kumar, P. (2022). Advances in Microwave and Millimeter-Wave Technologies. Springer.

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