Observability
Identify which object, tool, robot and process states are directly measured, inferred or left unknown.
System anatomy · 07
Examine how vision, force, encoders, calibration and process feedback detect variation, choose action and close the quality loop.
FUURAA thesis
Engineering map
Each layer states the boundary to establish and the evidence needed for the next decision.
Identify which object, tool, robot and process states are directly measured, inferred or left unknown.
Trace camera, tool, base, fixture, force and process frames with uncertainty, ownership and recheck triggers.
Define confidence, limits, rejection, retry, safe stop and human escalation for ambiguous observations.
Verification questions
Each question needs an object, conditions, denominator, threshold and accountable decision owner.
Which variation is represented in validation data?
How is calibration drift detected before bad product escapes?
What happens when sensors disagree or confidence is low?
Can logs reconstruct the observation and decision after an incident?
Evidence to preserve
A conclusion alone loses reviewability; raw records, configuration and exclusions matter too.
Calibration hierarchy, uncertainty budget and recheck record
Confusion, miss, false-positive and drift results by condition
Versioned sensor, model, threshold and fallback configuration
Scope boundary
A perception benchmark or calibration certificate does not prove robust closed-loop production under changing material and lighting.
This is an engineering reading and decision framework; it does not replace application-specific risk assessment, conformity work, procurement acceptance or professional advice.
Sources and evidence status
Source dates and review status remain visible; external sources open in a new tab.
Explains why repeatability and accuracy are distinct and why preparation and maintenance affect both.
Develops metrics and test methods for grasping, manipulation, control and contact safety.