Continual Learning Architectures
Independent research project, 2025-present
Investigating biologically inspired continual learning architectures for mitigating
catastrophic forgetting in neural systems. Current work explores Complementary Learning
Systems-inspired memory consolidation mechanisms, adaptive retrieval strategies, and
persistent long-term learning across sequential tasks.
The emphasis is on whether memory systems can support both stability and plasticity over
repeated updates, rather than only improving performance on a static training distribution.
Current experiments use a Complementary Learning Systems framing with a slow cortex-like
model, a fast surprise-gated episodic store, and replay-based consolidation. The live-ingest
line of work studies whether a user-specific adapter can accumulate experience over many
sequential updates while preserving retrieval behavior and avoiding destructive drift.
AlphaTrader
Independent research project, 2021-present
Designed and implemented a neuroevolutionary framework for neural-network-based technical
trading systems incorporating endogenous speciation mechanisms. The project investigates
evolutionary dynamics in which specialized trading agents emerge from an initially unified
population, producing expanding differentiation across evolutionary search trajectories.
Current system performance exceeds benchmark BTC buy-and-hold returns over a 13-month
evaluation period.
Capital-Consumption Theory
Independent research project, 2018-present
Developed an independent macroeconomic framework using nonlinear dynamical systems to model
interactions between capital accumulation, labor compensation, and consumption feedback
mechanisms. The project investigates how these interactions generate long-term macroeconomic
dynamics affecting productivity, inequality, inflation, interest rates, and capacity
utilization.
Manuscript released as a public preprint for ongoing revision and feedback.
Preprint available on SSRN.