I wrote down the design framing that motivates me_fasttext beyond the short "memory-efficient FastText" description.
The central idea is to treat a large FastText-style subword model as a structured memory-layout problem:
- preserve exact word and character n-gram identities with trie-backed ids;
- train before any storage-sharing decision is made;
- use structure and learned vector similarity to choose conservative row sharing;
- rewrite retained rows and trie terminal values into a compact mmap serving artifact.
This makes the project a bridge between classical dynamic memory management, trie-backed lexical identity, and FastText's character n-gram statistics.
Canonical notes:
Feedback is welcome, especially from people working on embedding storage, lexical retrieval, trie dictionaries, mmap serving, or memory-efficient NLP systems.
I wrote down the design framing that motivates
me_fasttextbeyond the short "memory-efficient FastText" description.The central idea is to treat a large FastText-style subword model as a structured memory-layout problem:
This makes the project a bridge between classical dynamic memory management, trie-backed lexical identity, and FastText's character n-gram statistics.
Canonical notes:
Feedback is welcome, especially from people working on embedding storage, lexical retrieval, trie dictionaries, mmap serving, or memory-efficient NLP systems.