Reconfigurable Patch Antenna With Matching Network Presented by: Mike Bly, Josh Rohman Advisor: Dr. Prasad N. Shastry.

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Presentation transcript:

Reconfigurable Patch Antenna With Matching Network Presented by: Mike Bly, Josh Rohman Advisor: Dr. Prasad N. Shastry

Presentation Outline Introduction to Reconfigurable Antenna Alternative Options Design Criteria Patch Antenna Design Switching Method and Implementation Simulation Matching Network Schedule

Reconfigurable Antenna? One antenna system that supports multiple single frequency bands. Types: Patch Antennas, Wire Antennas, PIFAs

Alternative Option 1: Multiple Antennas More Antennas = More Required Space Single Band

Alternative Option 2: Wideband Antenna One antenna supports all frequency bands needed Reduced space compared to multiple antennas, but large bandwidth Noise from large bandwidth

Proposed Design Criteria Patch antenna on microstrip board 2 GPS application frequencies ▫1.227 GHz ▫1.575 GHz Double stub impedance matching network ▫Matched to 50Ω MEMS preferred switching method

Patch Antenna Rogers Corporation RO3010 Microstrip Board ▫ε r = 10.2, h = 5 mils GHz, GHz Right Hand Circular Polarization

Patch Antenna Equations: ▫L1 = W = cm ▫L2 (total) = cm ▫dL2 = cm

Switching Method MEMS Switch ▫RMSW201, RADANT MEMS ▫SPST ▫DC to 20 GHz ▫0.3dB Insertion 2GHz ▫35dB Isolation 2GHz ▫1.9mm x 1.85mm package size ▫+/- 90V Gate-Source Voltage ▫Wire bonding to board

Switching Method DC-DC Converter: +5V to -90V

Implementing MEMS Via holes to ground plane

Implementing MEMS Conductive epoxy over via hole Wire bonding, gold plating

Simulations: Linear Patch Antenna PCAAD 6.0 Simulate Linear Patch Antenna (square or rectangle) to determine resonant frequency Simulate both patches separately before integration into one system

Simulations: Polarized Patch Antenna Sonnet or Momentum Right Hand Circular Polarization Modify linear patch antenna design to truncate corners.

Simulations: Include Switches Patches connected or not connected

Double Stub Matching Network A matching network allows maximum power transfer Useable for most load admittances

Double Stub Matching Network Reconfigurable to match different patch resonant frequencies Can not be analyzed until patch antenna system is designed Methods: ▫Using Smith Charts:  Cancel out all imaginary impedances  Match impedance to 50Ω  Must be done for each patch (Reconfigurable)

Task Schedule Research (completed) ▫Antenna Type ▫Switching Device ▫Polarization Methods Simulations (in progress) ▫Linear Patch Antenna  GHz, GHz ▫Polarized Patch Antenna ▫Determine Switch Parameters ▫Polarized Patch Antenna w/ switches (on/off)

Task Schedule (cont.) Impedance Matching – Double Stub ▫Smith Chart ▫Stub Lengths ▫Open or Short Circuit Board Fabrication ▫Microstrip Board ▫Implement MEMS ▫Switching Device

Task Schedule (cont.) Analysis ▫Resonant Frequencies ▫Efficiency ▫Comparison to Simulation Results

Tentative Remaining Schedule Simulations – Purchasing of Parts ▫Complete by end of Fall ’11 Semester Impedance Matching ▫Weeks 1-2 Fabrication ▫Weeks 3-10 Analysis ▫Weeks 11-15

Questions?