My doctoral research at NIT Goa investigates hardware acceleration of
generative adversarial networks (GANs) on FPGA-based edge devices. It
combines evolutionary and multifractal methods, which stabilise
training, with hardware-aware design that lowers latency and power.
MFDFA-enhanced GAN
Embeds multifractal detrended fluctuation analysis in the discriminator. Training is more stable and the hardware implementation more efficient, without changing the core GAN architecture.
Latency reduced by 92.05% and power by 86.03%.
Read the paper
Evolutionary-enhanced GAN with wavelet-based discrimination
A genetic-algorithm-optimised generator paired with a wavelet-based discriminator. Synthesised on the AMD Kintex-7 KC705, it has the smallest area footprint among the implementations compared.
Latency of 138 µs against 570 µs, and 24 mW against 47 mW.
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2D-MFDFA GAN
A two-dimensional multifractal discriminator for fast synthetic data generation, deployed on the Kintex-7 KC705 through the NNGen framework, with results verified on hardware.
FID improved by 85%, with 94% faster generation and 81% lower power.
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Current work
- Wavelet and evolutionary refinements to GAN discriminators for training stability
- Hardware-aware neural architecture design for edge deployment
- Federated synchronisation protocols for distributed training
- Rust prototypes for DAO-governed educational platforms, and torrent-based federated LLM training
My longer-term aim is open, decentralised AI infrastructure that combines governance, distributed learning and hardware-efficient optimisation.