Microstrip Antenna Design Research Partnership
Budget: ₹1,500 – ₹12,500 INR
I’m kicking off a multi-phase R&D effort devoted to the design and development of cutting-edge microstrip antennas. The overarching targets are straightforward: boost usable bandwidth while simultaneously lifting signal strength, all without compromising the core advantages of printed technology.
Phase by phase, I’ll be iterating from theoretical models through to lab-verified prototypes. You’ll take the lead on concept generation, electromagnetic simulation (HFSS, CST or an equivalent full-wave solver), layout refinement, and hand-over for fabrication. Once hardware comes back, we’ll compare measured S-parameters and radiation patterns against the simulated baseline, fine-tune, and document lessons learned for the next spin.
Key deliverables
• Simulation files and parametric reports that clearly demonstrate bandwidth extension and gain improvement
• Gerber/ODB++ files ready for PCB fabrication plus a concise build note set
• A short test report summarising measurement set-up, raw data and observed deltas versus simulation
• Version-controlled documentation so each design decision is traceable
Acceptance criteria
• Minimum 15 % fractional bandwidth increase over the reference topology provided at kickoff
• At least 1 dB realised gain improvement across the new passband
• Agreement between simulated and measured results within ±0.5 dB for gain and ±5 % for centre frequency
The work will be paced in milestones: simulation proof-of-concept, first prototype, optimisation spin, and final production-ready design. Strong familiarity with microstrip feed techniques, substrate trade-offs, and practical RF test practices will be invaluable as this collaboration is envisioned to continue through multiple product generations.
Phase by phase, I’ll be iterating from theoretical models through to lab-verified prototypes. You’ll take the lead on concept generation, electromagnetic simulation (HFSS, CST or an equivalent full-wave solver), layout refinement, and hand-over for fabrication. Once hardware comes back, we’ll compare measured S-parameters and radiation patterns against the simulated baseline, fine-tune, and document lessons learned for the next spin.
Key deliverables
• Simulation files and parametric reports that clearly demonstrate bandwidth extension and gain improvement
• Gerber/ODB++ files ready for PCB fabrication plus a concise build note set
• A short test report summarising measurement set-up, raw data and observed deltas versus simulation
• Version-controlled documentation so each design decision is traceable
Acceptance criteria
• Minimum 15 % fractional bandwidth increase over the reference topology provided at kickoff
• At least 1 dB realised gain improvement across the new passband
• Agreement between simulated and measured results within ±0.5 dB for gain and ±5 % for centre frequency
The work will be paced in milestones: simulation proof-of-concept, first prototype, optimisation spin, and final production-ready design. Strong familiarity with microstrip feed techniques, substrate trade-offs, and practical RF test practices will be invaluable as this collaboration is envisioned to continue through multiple product generations.
Related categories:
Wireless
Engineering
Electronics
Electrical Engineering
Documentation
Antenna Design
Simulation
Design Optimization