1 / 12

NRSM Boulder 2009 Novel Visualization of Antenna Radiation Patterns

NRSM Boulder 2009 Novel Visualization of Antenna Radiation Patterns. Dennis D. Vaccaro Sharad Laxpati University of Illinois at Chicago January 5, 2009. Overview. Novel Visualization Approach for Field Quantities Projects Quantities on the Surface of a Sphere

lainey
Download Presentation

NRSM Boulder 2009 Novel Visualization of Antenna Radiation Patterns

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. NRSM Boulder 2009Novel Visualization of Antenna Radiation Patterns Dennis D. Vaccaro Sharad Laxpati University of Illinois at Chicago January 5, 2009

  2. Overview • Novel Visualization Approach for Field Quantities Projects Quantities on the Surface of a Sphere • Uses Color to Indicate the Magnitude of a Field Component • Allows Ready Visualization of Angular Distribution of Field Quantities • Allows Visualization of Field Quantities as they change with distance from the Radiation Source by Plotting Multiple Spheres or as movies

  3. Thin Dipole Example North Pole South Pole Equator Z Y Normalized Far – Field Pattern E (  , ) X

  4. Thin Dipole Example E – Field Patterns Normalized to R = 0.1  E ( r ,  , ) R = 0.2  E ( r ,  , ) R = 0.1 

  5. Thin Dipole Example E – Field Patterns Normalized to R = 0.1  Er ( r ,  , ) R = 0.1  Er ( r ,  , ) R = 0.2 

  6. Thin Dipole Example H – Field Patterns Normalized to R = 0.1  H ( r ,  , ) R = 0.1  H ( r ,  , ) R = 0.2 

  7. Thin Dipole Example Poynting Vector Field Patterns Normalized to Radial Component S ( r ,  , ) R = 0.1  Sr ( r ,  , ) R = 0.1 

  8. Thin Dipole Example Poynting Vector Field Patterns Normalized to Radial Component S ( r ,  , ) R = 0.2  Sr ( r ,  , ) R = 0.2 

  9. Summary • Provides a Novel Mechanism for Visualizing Field Quantities • Many Extensions of the Concept Possible

More Related