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
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Advanced Topics
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Advanced Tooling Optimization
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Optimizing Tilting Behaviour

Optimizing Tilting Behaviour

Applying Microjoints based on Tilting Calculations

The user can define hierarchical finishing rules that will determine how contours are finished. Whether they are microjoint, scrap-cut or left free on the table.

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Option Description

None

No special action is taken

Auto microjoint

Applies microjoint(s) on the contour. Software will automatically decide how many microjoints are required based on the parameter. ne79

Cut up scrap

Cut up the contours into smaller pieces so that they fall through the slats.

One microjoint

Create exactly one microjoint on the contour.

Two microjoints

Create exactly two microjoints on the contour.

Three microjoints

Create exactly three microjoints on the contour.

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Eliminating Holes that can cause a Tilt

Using the finishing rules suggested above, the user can decide to scrap-cut holes that can collide with the machine head. Flux will automatically apply this rule and create scrap tooling, where necessary, when loading the part into the job.

Determine Number of Required Microjoints

Flux can determine the number of microjoints required on a contour (based on contour geometry, slat configuration, material, thickness, and gas pressure). Usually, one microjoint is enough, but in some cases (typically, long but thin contours), more microjoints might be required to provide enough support to the contour so that it does not bend down too much into the slats (or even break the microjoint) due to the torque created by its own weight or gas blowing over it.

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Automatic Movement of the Approach Point to avoid Tilting

ne39

Sometimes choosing a different approach point can change an unstable contour into a stable contour. Flux can detect such situations and automatically adjust the approach point.

Process Stability

The process stability is influenced mainly by:

  • Tilting parts that might tip up and collide with the cutting head.

  • Thermal tensions that bend parts up and collide with the cutting head.

Parts that are a risk are highlighted in red in the sequencing overview.

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A common approach to increasing process stability, for example are microjoints and scrap cutting.

Contents

  • Applying Microjoints based on Tilting Calculations
  • Eliminating Holes that can cause a Tilt
  • Determine Number of Required Microjoints
  • Automatic Movement of the Approach Point to avoid Tilting
  • Process Stability
Optimizing Stability with Scrap Cutting Space Out Slice Cuts to Avoid Collision

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