Record branch angle, diameter, length, supported mass, attachment condition, movement, and any external support.
Visual lesson 06
Branch angle & mechanical support
Treat branches as loaded structures by connecting attachment geometry, diameter, leverage, tissue condition, supported mass, movement, and external support instead of using angle alone as a strength score; general branch-junction biomechanics are used conceptually where Cannabis-specific strength measurements are unavailable.
Canopy mechanics
Interactive concept mapBranch strength depends on geometry, load, and tissue condition
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Attachment
Branch diameter, union geometry, tissue continuity, and angle set the structural starting point.
No single branch angle is a universal strength threshold. Mechanical risk emerges from interacting geometry and load.
Knowledge check
PracticeCan you explain what the visual is showing?
Why should branch angle be interpreted together with branch diameter, load, attachment geometry, and support rather than as a single strength score?
Track this lesson
Mark the lesson complete when you are comfortable with the visual, observations, and system context.
Evidence & further reading
Sources connected to this lesson
These references support specific biological, diagnostic, environmental, or process concepts used in this lesson. They are not a substitute for crop-specific testing or local regulatory guidance.General woody-plant branch–stem junction biomechanics and finite-element evidence showing that attachment geometry, thickening, load transfer, and stress concentration affect mechanical behavior; used conceptually, not as Cannabis-specific strength data.
Cannabis leaf morphogenesis, phyllotaxy, plant architecture, reproductive transition, inflorescence development, trichome development, and senescence across a complete life cycle.
Female cannabis phytomer organization, solitary flowers, branching, photoperiod response, inflorescence architecture, and floral development.
Female cannabis photoperiod response, shoot-apex architecture, internode elongation, condensed inflorescence development, gibberellin, and auxin context.
System context