Ku-Band ΣΔ Monopulse Antenna -- 2
Budget: ₹12,500 – ₹37,500 INR
I need a complete electromagnetic design package for a Ku-band monopulse antenna that operates reliably across 12-18 GHz. The antenna will be the heart of a precision tracking system, so both the sum (Σ) and difference (Δ) patterns must be tightly controlled with excellent boresight stability and low side-lobe levels.
Please base the work on industry-standard simulation tools such as CST, HFSS, or FEKO and keep the feed network fully compatible with standard WR-62 waveguide interfaces. I am happy to discuss options on aperture technology—horn array, reflectarray, or planar—but whichever architecture you select must meet the tracking accuracy targets we set together.
Deliverables I need at the end:
• 3-D CAD model and native simulation files
• Radiation patterns (Σ and Δ) showing gain, side-lobe, and null depth across the whole 12-18 GHz span
• Detailed feed network layout with amplitude / phase balance data
• Brief manufacturing notes and recommended materials so the design can move straight into prototyping
I will verify the work by replicating your simulation results and checking that the Δ null stays within ±0.1 ° of boresight while maintaining at least 25 dB isolation between Σ and Δ ports. If you have already produced similar Ku-band tracking antennas, a quick note on past results will speed up the decision.
Please base the work on industry-standard simulation tools such as CST, HFSS, or FEKO and keep the feed network fully compatible with standard WR-62 waveguide interfaces. I am happy to discuss options on aperture technology—horn array, reflectarray, or planar—but whichever architecture you select must meet the tracking accuracy targets we set together.
Deliverables I need at the end:
• 3-D CAD model and native simulation files
• Radiation patterns (Σ and Δ) showing gain, side-lobe, and null depth across the whole 12-18 GHz span
• Detailed feed network layout with amplitude / phase balance data
• Brief manufacturing notes and recommended materials so the design can move straight into prototyping
I will verify the work by replicating your simulation results and checking that the Δ null stays within ±0.1 ° of boresight while maintaining at least 25 dB isolation between Σ and Δ ports. If you have already produced similar Ku-band tracking antennas, a quick note on past results will speed up the decision.
Related categories:
Electronics
Mechanical Engineering
Manufacturing Design
Product Design
Antenna Design
Prototyping
Simulation
3D CAD