Flux Reference Manual

  • Welcome to Flux
  • Introduction
    • Installing the Software
    • The User Interface
    • Part Workflow
    • The Machine Database
  • Cut
    • Basic Workflows
      • Part Workflow
        • Load Part
        • Sketch Mode
        • Measure
        • Modifying Laser Part
        • Nesting
        • Sequence Navigator
        • NC Code Generation
      • Job workflow
        • Create Job
        • Set Laser Technology Table (LTT)
        • Nesting
        • Automatic Part Placement
        • Manual Part Placement
    • Advanced Topics
      • Geometry Import Options
      • Advanced Tooling Options
        • Editing Microjoints
        • TwinLine
        • FlyLine
        • Dimple Approach
        • Remainder Sheets
        • Pie-Slug Circular Holes
        • Avoid Retooling Pierces
        • Finishing Rules
        • Clone LTT
      • Advanced Nesting Features
        • Mirrored Parts
        • Find a Part in Nest Layout
        • Filler parts in Nest Layout
      • Advanced Tooling Optimization
        • Contour Quality
        • Optimizing Stability with Scrap Cutting
        • Optimizing Tilting Behaviour
        • Space Out Slice Cuts to Avoid Collision
        • Minimize Number of Different Layouts
        • Dynamic Level Setting
      • Advanced Menu Options
        • Context Sensitive Menus
        • Hierarchy of Settings
        • Multi-Selections
        • CSV Output
      • Manual Sheet Slicing Cuts
      • Text on Parts
    • Application Settings
      • Cut CAM
        • Layout
          • Nest Settings
          • Sheet
          • Sheet Handling
          • Skeleton Cuts
          • Work Support
        • Laser CAM
          • Sequence
      • Cut Outputs
      • Cut View
  • Bend
    • Basic Steps of Flux Bend
    • Basic Workflow
      • The Main Panel
      • The Workflow Panel
      • Batch processing
      • Modifying the Geometry
      • The Bend Navigator
      • Editing the Bend Solution
        • Editing a Bend
        • Changing the Bending Sequence
        • Editing a Tool Mount
        • Editing a Bend Setup
        • Editing the Back-Gauges
        • Angle Measurement
        • Using a Pre-Bend
        • Editing multiple mounts
        • Adding a Tooling station
      • Recomputing the Bend Solution
      • Generating Bend Outputs
      • Export Bend Report
    • Design of bend parts
      • Min Radius and Flange Length
      • Corner Design
      • Bending Tolerances
      • Selection of Tools
    • Advanced Workflow
      • Preparation of Bend Parts
        • Preparing a 2D drawing
        • Editing a Drawing
        • Add Bending Information as Text to DXF
        • Measuring and changing Outer Dimension
        • Preparing 3D models
        • Preparing an Assembly
        • Component Detection
        • Form Detection
      • Edit Tools
        • Changing Tool Map
        • Change Tool Segmentation
        • Editing Tool-mount Segments
        • Adding a Gap into the Tool
        • Use a Double-V Adapter
        • Tool Priority
        • Creating a Tool
      • Using Bend Deductions
      • Control Visibility
      • Comment Section in Bend Panel
      • Tools/Machine Tonnage Check
    • Settings
      • Application Settings
        • Bend CAM
          • Bend Outputs
          • Bend View
          • Bend Cell
      • Database Settings
        • Materials
        • Machines
        • Bend Tools
        • Bend Deductions
        • Bend grippers
        • Forms/Components
      • Bend Settings
      • Machine Defaults
  • Robotic Bending
    • Overview of Robotic Bending
    • Basic Steps of Robotic Bending
    • Workflow
      • Part Pickup
        • Pickup from a Pallet
        • Pickup from a Dispenser
      • Insertion Strategy
      • Bending Strategy
      • Regripping (RG) Stations
        • Re-Grip Stations
        • Methods of Regripping
        • Adding ReGrip
        • Modify ReGrip Position
        • Remove ReGripping
        • Regrip with a Jaw Gripper
        • Gripper Panel & Suction Panel
      • Extraction Strategy
      • Part Deposit
        • Adapt Part Deposit
        • Adding Parts & Stacks
          • Deposit Panel
          • Add Separator Sheets
          • Lock Part-Rest
          • Repeat Grid Field
          • Deposit Sequence
        • Deposit Pattern Types
      • Waypoints
        • Adapt WayPoints
        • Display Waypoints
        • Simulate Waypoints
        • Modify WayPoints
        • Properties of Waypoints
    • Advanced Topics
      • Cell Configuration
        • Track Setup
        • Gripper Inventory
        • BendCell settings
      • Gripper Configuration
        • Create/ Edit a Gripper
        • Import Gripper from DXF
    • Troubleshooting Bend Errors
      • Part Pickup Error
      • Collisions with Machine
      • Overtravel of Axis
      • Modifications of Waypoints
      • Collisions while Insertion and Extraction
  • Fold
    • Switching to Fold CAM
    • The Fold View
    • Editing Operations
      • Editing a Bend-Op
      • Editing a Side/Section
      • Changing the Sequence
      • Editing the Blank-holders
      • Editing the Gauging
      • Editing the Blades
      • Editing the Loading
      • Editing the Unloading
    • Tool Management
    • Fold CAM Summary
  • Generic Application Settings
    • Drawing
      • Layers
      • Dimensions
      • View
    • Environment
    • Import/Export
  • Flux Reports
    • Report Designer
    • Fields, Pictures and Tables
    • Bands (sub-reports)
    • Labels, Bitmaps and Shapes
  • Appendix
    • Supported 3D Formats
    • Separator Sheet DXF
Cut
/
Basic Workflows
/
Job workflow
/
Nesting

Nesting

Layouts

Flux has a powerful nesting engine which places your parts in the most efficient way on a sheet.

n165
Figure 1. Nesting in Job mode

Spread-out parts on a nested layout if there is no remainder sheet

spreadparts

Flux’s nesting engine automatically spreads-out parts on fully filled sheetsIt analyses the layout and checks if spreading out will make a meaningful difference to part spacing and if it does, it will spread out the partsThis automatically improves sheet stability.

ne57

Option to prefer placing thin long parts across slats rather than along slats

It is great if the nesting engine is aware of laser processing implications when it is positioning a part. Flux’s homegrown nesting engine is aware of the slat configuration and automatically chooses prefers across the slat orientations for some parts (possibly at the cost of nesting efficiency).

ne56
ne55
Figure 2. Without this option checked
ne54
Figure 3. With this option checked

These options also can be set in Settings → Cut CAM → Nesting.

ne26

Nesting with taking grain direction (rolling direction) into account

User can specify the preferred material grain on the part and Flux will ensure that the part is placed in the right orientation on the blank sheet, taking the blank sheet’s rolling direction into account.

ne52
ne51

Automatic TwinLine Nesting

Flux nesting engine can generate good automatic twinline nest results, taking into considerations various twinline related sensitivities.

Consistent space between edges: When creating nesting cells (patterns that are repeated) the software ensures that the distance between part edges is either exactly equal to kerf width or the usual part gap.

Well aligned twinline edges: In the previous implementation, the twinlined edges were not overlapping completely, creating tiny, unmachinable nooks as shown in the snapshot belowThis should not happen now.

ne50

No tiny twinline segments: The software will never create tiny twinline segments shorter than 10mm.

ne49

Nesting a partly filled sheet

Flux can nest on a sheet partly filled. It can come in handy when a user wants to manually nest a portion of the layout and then want the software to automatically fill the rest of the sheet.

Nesting on non-rectangular sheets or sheets with holes

Flux can automatically nest on a non-rectangular remainder sheet.

Sequencing & Routing optimization

Sequencing and routing optimization is much improved over previous CAM systems.

  • Sequence within a part is optimized much better with the goal to minimize head repositioning time.

  • Multiple sequences are computed for each part, each optimized for different scenarios on the layout. Depending on where the machine head is coming from and where it needs to go next, the order within a part could vary across instances of the same part.

Moving around cut holes (instead of raising head).

ne48

Sometimes, it is faster to quickly go around an obstructing hole with head down rather than lifting the head up. Flux can do that when it saves time and it is safe. For safety reasons, when routing around a hole that could have a tilted cutout, it applies greater margin, otherwise a smaller standard margin. Thus, Flux’s tipping analysis helps in optimizing routing and reduces processing time on the machine.

Instant reading of head repositioning time to gauge effect of manual sequence and routing changes.

The total time spent for head repositioning is a good metric to measure the quality of sequence and routing optimization. Flux calculates this time accurately and instantly.This helps the user gauge the impact of her changes to the sequence.

Automatic adding of microjoint to a hole if another part is nested in it (on layout)

A big hole inside a part could be evaluated as being stable at the part level. But on a layout, when other smaller parts are nested in this hole, it could become unstable. Flux can detect such situations and automatically add a microjoint. This is done dynamically even while the user is manually modifying the layout.

ne47

Contents

  • Layouts
  • Spread-out parts on a nested layout if there is no remainder sheet
  • Option to prefer placing thin long parts across slats rather than along slats
  • Nesting with taking grain direction (rolling direction) into account
  • Automatic TwinLine Nesting
  • Nesting a partly filled sheet
  • Nesting on non-rectangular sheets or sheets with holes
  • Sequencing & Routing optimization
  • Automatic adding of microjoint to a hole if another part is nested in it (on layout)
Set Laser Technology Table (LTT) Automatic Part Placement

      Copyright © 2023 by Metamation. All rights reserved.

    Compiled by Bento