Improvements:
- To design an RLPE to enhance real-time chirp generation using a reconfigurable filter-based architecture.
- To design VBW Filter with SHA, VBW filter with SP, Proposed RLPE, and VE SOP architecture in both sines wave and chirp modulation signals, this implementation done with Verilog HDL and Functional Verification done with ModelSim.
- To minimize area and power consumption by using fixed-coefficient implementations instead of general multipliers.
- To reduce hardware complexity, power, and delay by minimizing the number of D flip-flops (DFFs) and adders through optimized arithmetic reformulation with help of Xilinx Aritix-7 FPGA.
- To eliminate online redesign and complex coefficient updates, allowing simple parameter-controlled chirp reconfiguration.
Proposed abstract:
Reconfigurable digital filters are widely used in modern signal processing systems because they allow filter characteristics such as bandwidth and response to be changed in real time without redesigning the entire filter. A reconfigurable low-pass equalizer is one such structure that combines low-pass filtering and equalization using a small number of control parameters. While this approach is flexible, existing hardware implementations often rely on general multipliers and frequent coefficient updates, which increase hardware complexity, power consumption, and delay, making them unsuitable for real-time processing of time-varying signals such as chirp signals. Chirp signals have a continuously changing frequency and therefore require filtering architectures that can adapt efficiently while maintaining low computational cost. In this work, a low-complexity reconfigurable low-pass equalizer architecture is proposed to filter chirp-modulated signals in real time using a parameter-controlled filter structure. The core method is based on a variable bandwidth filter followed by a variable equalizer, where most filter coefficients are fixed and implemented using shift-and-add arithmetic instead of general multipliers, thereby eliminating online redesign and complex coefficient loading. Chirp signals are applied as the primary input and filtered to demonstrate the adaptability and effectiveness of the proposed architecture, and this waveform is emphasized due to its growing importance in next-generation communication systems. The novelty of the proposed work lies in the optimized arithmetic reformulation that reduces the number of adders and D flip-flops, leading to lower power consumption, reduced hardware complexity, and improved timing performance. The complete design is described in Verilog HDL and functionally verified using ModelSim. Synthesis and performance comparisons are carried out on a Xilinx Artix-7 FPGA platform, and the results confirm that the proposed architecture achieves efficient real-time chirp signal filtering with reduced area and power compared to conventional general-multiplier-based implementations.
Software Implementation:
- Modelsim
- Xilinx
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A Low-Complexity Reconfigurable Low-Pass Equalizer Architecture for Real-Time Chirp Signal Filtering in 6G Communication Systems
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