Load model
Include tool mass, centre of gravity, inertia, process force, cable load and transient acceleration at every critical pose.
System anatomy · 05
Connect kinematics, motors, transmissions, thermal limits and controller behaviour to the real payload and duty cycle.
FUURAA thesis
Engineering map
Each layer states the boundary to establish and the evidence needed for the next decision.
Include tool mass, centre of gravity, inertia, process force, cable load and transient acceleration at every critical pose.
Measure pose and path behaviour under production speed, warm-up state, payload and mounting conditions.
Track thermal derating, backlash, vibration, brake condition, lubrication and accuracy drift across service life.
Verification questions
Each question needs an object, conditions, denominator, threshold and accountable decision owner.
What payload and inertia remain usable at the target reach and acceleration?
Which joints become torque or thermal bottlenecks?
How do mounting and cable routing change measured motion?
What maintenance signal appears before process quality degrades?
Evidence to preserve
A conclusion alone loses reviewability; raw records, configuration and exclusions matter too.
Application load and inertia calculation by critical pose
Warm and cold performance tests at production speed
Trend record for vibration, position error and intervention
Scope boundary
Catalogue maxima are rarely simultaneous and do not include every tool, cable, process or environmental constraint.
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.
Provides a common measurement frame for pose, path, velocity and related manipulator performance characteristics.
Demonstrates measurement of tool-centre position and orientation degradation to support condition assessment.