Small-cell pole modeling with equipment configuration coordinated to reference drawings, installation details, and manufacturer data.
JWORKS brings pole-loading experience and mechanical drafting insight to the details that define the load model: what is installed, where it is mounted, and how its load reaches the pole.
Geometry coordinated with the installation package.
Dimensions, weight, position, and orientation.
Source references, assumptions, and revisions.
The supplied views show a small-cell equipment assembly within an overhead utility environment. Reviewing the 3D arrangement alongside the elevation helps organize the configuration before analysis inputs are finalized.
Equipment bodies, a supporting frame, braces, pole interfaces, and a vertical riser are visible. The model communicates spatial relationships that require verification against installation details.
The elevation shows the pole-mounted assembly, overhead lines, vertical routing, and ground-level equipment. It supports configuration review; exact dimensions must come from the dimensioned source package.
Selected work visuals supplied by JWORKS. These images illustrate model-to-drawing coordination; dimensioned drawings, datasheets, and calculation outputs were not supplied for this portfolio. No numerical capacity or code-compliance result is asserted.
Drawing alignment supports a better-defined loading model when geometry is reconciled with verified equipment properties and approved analysis criteria. Visual detail alone does not establish calculation accuracy.
Confirm the equipment schedule, exact model reference, quantity, envelope dimensions, installed weight, and orientation.
Represent the frame, brackets, clamps, stand-off distance, and equipment mounting elevations.
Coordinate attachment heights, radial positions, horizontal eccentricities, and equipment facing directions.
Check equipment width, depth, height, shape, and the applicable wind-response parameters.
Confirm pole-supported cable routes, risers, conduit sizes, attachment spacing, and applicable supported weights.
Check pole properties, existing attachments, conductor spans and directions, and relevant support conditions.
A complete installation drawing can include assets that do not transfer load to the pole. Modeling scope follows the support arrangement and load path.
Automation can organize equipment inputs and repeated checks. Technical review resolves assumptions, confirms the configuration, and controls changes that affect the analysis.
Review the drawing revision, equipment schedule, datasheets, field records, and required utility criteria. Log missing or conflicting inputs.
Map each pole-supported item to a model element with verified geometry, weight, placement, and source references.
Apply approved load cases and compare existing and proposed configurations. Review governing demand, utilization, and support reactions where applicable.
Cross-check the model against the drawings, resolve exceptions, rerun affected cases, and issue coordinated files with an input and revision record.
Deliverables are agreed around the available source package and the required analysis scope.
An O-Calc Pro model reflecting the agreed pole-supported small-cell configuration.
Equipment references, quantities, dimensions, weights, heights, offsets, orientation, and source revisions.
Existing/proposed comparison, governing load cases, and relevant report outputs within the agreed scope.
Source discrepancies, assumptions requiring acceptance, checks completed, and changes affecting the analysis.
This portfolio presents work samples and a technical approach. Equipment values, model-to-drawing dimensional agreement, and loading results require project-specific verification.
Start with the latest drawings, equipment schedule, datasheets, field records, and required analysis criteria.