RUN MAP METHODOLOGY

How Run Maps Work

A structured breakdown of the systematic five-stage workflow transforming vector elements into precise, repeatable laser toolpath executions.

5 Sequential Pipeline Stages
100% Deterministic Layer Order
±0.08mm Target Dimensional Accuracy
Architecture & Toolpath Logic Spec v2.4

Five-Stage Execution Sequence

A Run Map transforms abstract artwork into deterministic machine toolpaths by defining layer behavior, laser physics parameters, sequence order, and target tolerances before firing a single pulse.

Interactive Pipeline Simulator

Inspect Step Transitions

01 STAGE 1 / 5

Artwork Element Identification

Raw geometry is extracted from CAD/vector assets. Polylines, bezier curves, closed boundaries, and raster bitmaps are segregated by geometric topology.

Verification Check Boundary closure & non-intersecting nodes
INPUT GEOMETRY
Vector Polylines

Closed outer loops and interior cutouts isolated into node sets.

TOPOLOGY CHECK
Continuous Node Path

0 broken segments detected; micro-gaps under 0.05mm stitched automatically.

METRIC REGISTER
12 Closed / 4 Open

Total vector perimeter 1,480 mm ready for layer allocation.

Phase 01 Topology

Artwork Element Parsing

Every graphic element in your design file (SVG, DXF, AI, or LBRN) is indexed. Lines are categorized by geometric integrity, checking for duplicate coincident nodes and path direction.

Output Parameter: Indexed geometric coordinate arrays
Phase 02 Allocation

Layer Role Classification

Elements receive semantic role tags rather than generic layer numbers. Roles define functional intent: Surface Texturing, Alignment Reference, Pocket Depth, or Through-Parting.

Output Parameter: Role metadata mapped to color indices
Phase 03 Physics

Process Type Designation

Physics modes are matched to each layer role: Raster Engraving (cross-hatch/unidirectional), Vector Scoring (low power surface mark), or Vector Cutting (high assist parting).

Output Parameter: Speed (mm/s), Power (%), Pulse Rate (kHz)
Phase 04 Chronology

Execution Order Hierarchy

Strict sequence hierarchy prevents work piece shifting. Standard progression runs internal raster fields first, inner vector features second, and outermost boundary cuts last.

Output Parameter: Ordered operational queue [1..N]
Phase 05 Quality Gate

Expected State Validation

Defines empirical acceptance standards: kerf offset balance, charred edge limits, dimensional accuracy (e.g. ±0.08mm), and structural stability across multiple parts.

Output Parameter: Pass/Fail inspection criteria sheet
Synthesis Integration

Unified Run Blueprint

When all five stages align, machine operators eliminate trial-and-error scrap cycles, supporting identical outcome across different batch runs and shifts.

Reference Execution Sheet

Sample Standardized Layer Run Matrix

Material: 3.0mm Baltic Birch Plywood
Seq Artwork Element Layer Role Process Type Speed / Power Air Assist Expected State
01 Logo Fill & Serial Engrave_Deep Raster Scan (0.08mm) 350 mm/s / 28% Low (0.5 Bar) 0.4mm depth, crisp edges, minimal residue
02 Dial Markings & Grid Score_Fine Vector Line Mark 120 mm/s / 14% Medium (1.0 Bar) 0.12mm hairline width, zero burn flare
03 Mounting Holes (Ø 3.2mm) Cut_Internal Vector Inside Cut 18 mm/s / 65% High (2.2 Bar) Clean slug drop, vertical sidewall
04 Outer Perimeter Cut Cut_External Vector Outside Cut 16 mm/s / 70% High (2.5 Bar) Square perimeter, parts release cleanly
Explore Hub

Run Maps Directory

Browse verified Run Maps cataloged by operational purpose, substrate type, and power classes.

Browse Run Maps
Material Registry

Material Parameters

Consult power densities, feed rates, focal height offsets, and kerf charts for hardwoods, acrylics, and metals.

Explore Materials
Operational Boundary

Safety & Calibration

Review thermal dissipation limits, beam alignment checks, and fume extraction requirements before production.

Read Safety Protocol