Readable context
Keep retrieved material human-readable when traceability, citations, compatibility, or direct inspection matter most.
A research direction for giving AI systems useful external knowledge in the form that best fits the model and the task.
NORA explores retrieval augmentation as a flexible knowledge layer rather than a one-size-fits-all prompt technique. The project is centered on supporting readable text context, compact neural memory, and hybrid use of both while remaining open to different model families.
[ ABOUT NORA ]
NORA investigates how retrieval can become a reusable MLBricks capability that works across conventional language models, state-oriented systems, and future memory-aware models.
Keep retrieved material human-readable when traceability, citations, compatibility, or direct inspection matter most.
Explore neural memory representations for systems that can work with retrieved information without relying only on long blocks of raw text.
Combine readable evidence with compact memory so an application does not have to discard the strengths of either approach.
[ RESEARCH GOALS ]
NORA is currently a research project. The emphasis is on exploring useful behavior, interoperability, inspectability, and efficiency before making broader performance claims.
Help models answer from information supplied by documents, knowledge collections, and application-specific sources.
Keep the retrieval layer usable with standard language models as well as MLBricks state- and memory-oriented research systems.
Keep room for interfaces that show which information was selected and how it contributed to the final context.
Study whether compact memory forms can complement raw text when large retrieved contexts become expensive to process.
Its text, memory, and hybrid directions are research paths, not claims that one form is universally better than another. MLBricks intends to evaluate them according to task quality, latency, memory use, transparency, and model compatibility.
[ NORA / RESEARCH ]
NORA is MLBricks' research direction for retrieval augmentation that can remain readable, become model-facing memory, or combine both depending on what the application needs.