Research-first direction, architecture publication, and governance references for Elora's non-neural behaviour detection, commit-boundary control, and evidence-rich operator model.
The current research program focuses on observing and analysing AI inference behaviour under constrained compute conditions, with the aim of understanding how instability, drift, and inefficient generation emerge during runtime.
Initial work explores how non-neural machine learning and bounded governance regulation applied prior to generation can influence these behaviours, particularly in relation to token usage, runtime characteristics, and overall stability.
This research has been formalised in the following preprint.
AI Inference Behaviour Under Constrained Compute: Observability and Control in Resource-Limited Systems
Elora favors transparent architectural publication and interoperability over closed governance primitives. The project publishes governance and security architecture as references while keeping sensitive runtime implementation contracts private for operational security.
Core research and disclosure materials are grouped below for fast access across behaviour detection, governance control, Model Exams, and capability expansion research.
How Elora Runtime Intelligence System (ERIS) uses bounded non-neural/classical ML and statistical methods to learn runtime/system behaviour, pressure signatures, and degradation posture for read-only runtime-intelligence visibility under policy-bound governance controls.
EBLS is the model-behaviour learning domain: suitability by task/profile, governance-adherence scoring, and pattern outcomes from observer/model-exam evidence. It remains policy-gated and does not bypass commit-boundary authority.
Dated milestones, standards baseline, terminology, and capability chronology for defensive publication.
Control-plane semantics, commit boundary admissibility, operator risk workflow, and behaviour-governance mapping.
Layered responsibility model from ingress trust to behaviour detection, evidence capture, and replay.
Proposal to commit to execution as the core authorization design of Elora's governance runtime.
Public chronology of implementation milestones and evidence method for open architecture protection.
Documented project-to-project dialogue and architecture pattern exploration with explicit non-ownership framing.
Peer-reviewed and preprint outputs, including collaboration-linked research contributions.
Planned research explores using a model as Elora's "hands" to execute game actions while Elora evaluates instruction-following, timing, and policy-safe behaviour under dynamic pressure, as part of capability research beyond standard inference control planes.
This will run as a controlled program with safe telemetry boundaries, deterministic scoring, and reproducible scenario playback.