Systems & Architecture Research Group
Rethinking frontend runtime fundamentals. We investigate streaming AST lexing directly in modern browsers, O(1) deterministic state machines, and fine-grained reactive DOM mutation without bundler toolchains or Virtual DOM diffing.
A quantitative comparative analysis demonstrating how streaming XML AST directly into a fine-grained reactive DOM graph eliminates bundlers, Virtual DOM diffing, and hydration lag.
An architectural exploration of client-side execution without build steps. How declarative state specifications restore native web simplicity.
Formally modeling deterministic finite state machines in declarative XML (<WIRE>). Why deterministic state machines eliminate cascading re-renders inherent in React hooks.
Benchmarking direct 2D and WebGL canvas pipelines against React/Three.js abstractions. Achieving rock-solid 60 FPS audio visualizers and timelines without compile overhead.
Provable eventual consistency in browser-native declarative web applications without centralized build pipelines or heavy Node runtime abstractions.
Sub-millisecond AST deserialization: compiling streaming tokenizers to WebAssembly to feed declarative browser DOM nodes at native memory bus speeds.
Why eliminating npm runtime dependencies and enforcing host-level script-src "self" provides mathematical guarantees against XSS and prototype pollution.
Applying CPU L1/L2 cache locality, flat data arrays, and branch-prediction optimizations to browser-native declarative XML execution engines.
Quantitative latency benchmarking of direct microtask event loop scheduling against React synthetic event pooling across 100k event bursts.
A formal verification framework for declarative XML state machines (<WIRE>) guaranteeing memory-safe, zero-allocation execution profiles in compile-free web architectures.
