This is a Material Design theme for Hexo, a static site generator. The theme provides a complete frontend solution for Hexo-powered blogs, featuring responsive design, dark mode support, multiple comment system integrations, lazy loading, and client-side search. It follows a modular architecture with EJS templates for layout organization, Stylus for CSS preprocessing, and JavaScript for interactive features. The theme is highly configurable through _config.yml and supports extensive customization via custom CSS/JS.
Fluid Framework is a production-grade TypeScript monorepo for building real-time collaborative applications. It provides a layered client runtime stack (container-loader, container-runtime, datastore) and a family of distributed data structures (DDS) including SharedTree, SharedMap, SharedString/Sequence, SharedMatrix, and SharedCounter. State synchronization is driven by operation logs and summaries, with versioned op formats and codec families that allow protocol evolution. The repo also includes server components (Routerlicious, Tinylicious, Gitrest, Historian) that provide ordering, storage, tenant management, and REST APIs, plus driver abstractions for Azure Fluid Relay, ODSP, local files, and replay scenarios. The architecture is a large pnpm monorepo organized into release groups: client, routerlicious, gitrest, historian, and build-tools. Application developers integrate through container runtime factories and data-object patterns; DDS packages encode changes as versioned ops and summaries; server lambdas order, persist, and broadcast ops; Gitrest/Historian provide Git-based snapshot storage. The repository also contains extensive example apps (React-based collaborative textareas, dice rollers, staging, table editors) and a devtools browser extension, but those are reference/demo surfaces rather than the core product. Although classified as an application/library, the repository has a research-heavy character: SharedTree's design involves deep schema, codec, and change-family work; there are multiple generations of tree DDS (modern, experimental, and legacy PropertyDDS); and there is extensive stochastic/fuzz testing, snapshot compatibility testing, and performance benchmarking. The codebase is highly active and professionally maintained, with recent commits, robust changeset/CI tooling, and strong API compatibility automation. However, it carries notable legacy baggage: deprecated common-utils packages, experimental DDS code, duplicated server helpers, hardcoded test ports, and several half-completed migrations. These are mostly isolated to legacy corners, making the overall drift manageable.
FLIP Fluids is a production-grade Blender addon for liquid simulation, integrating a custom C++ FLIP (Fluid Implicit Particle) engine with a comprehensive Python UI. The engine implements advanced numerical methods including level sets, variational pressure solvers, PCG with MIC(0) preconditioning, force fields, whitewater particles, and viscosity solvers, all backed by a vendored Eigen linear algebra library. The Blender addon provides property groups, UI panels, preset management, material libraries, and command-line scripts for baking, rendering, and Alembic/USD export. The architecture is a hybrid: the C++ engine is compiled as a shared library and accessed via C bindings and Python ctypes wrappers, while the addon code follows standard Blender patterns (operators, panels, property groups). Key entry points include the baking operators, simulation domain properties, and the engine's Python bindings in `ffengine/`. External dependencies include Blender (4.5+), Eigen, and optionally Mixbox for color blending. The codebase is well-structured with extensive version compatibility layers, but the vendored Eigen and reliance on Blender's evolving API introduce moderate technical drift.