-
Technical Support
-
- A Case for Computer Integrated Manufacturing (CIM)
- Basic Methods of Length Control
- Benefits of Computer Integrated Manufacturing (CIM) - Deutsch
- Coil Handling
- Continuous Improvement - Tube & Pipe Journal
- Continuous Improvement in Roll Forming
- Encoder Tracking and Mounting
- Improving Roll Forming Operations
- Part Marking
- Roll Forming and Industry 4.0
- Roll Forming: The Four Basic Machine Types
- Servo Control for Improving Roll Formed Production
-
-
XL200 Series Support
-
- Battery Replacement
- Calibrating the Touchscreen of an XL200 Controller
- Extending XL200 Controls with PLC Integration
- Solving Memory Loss and Computer Lockup Problems
- Using Product Codes for Machine Positioning in the XL200 Series Controller
- Using Setup Configurations in the XL200 Series Controller
- Using Tool Configurations in the XL200 Series Controller
- XL200 Direct Ethernet Communication with Eclipse Classic
-
- Bar Code Scanners
- Bar Code Scanners for Data Entry
- Boosted Dies
- Calculating Press Reaction
- Checking Press Consistency with Oscilloscopes
- DIP Switch Configuration
- Punch Programming on the XL200
- Sending Saved Parameters or Tool Libraries from Eclipse Classic to XL Controller
- Understanding the XL200 Part Queue
- Using Product Codes for Machine Positioning in the XL200 Series Controller
- Using Setup Configurations in the XL200 Series Controller
- Using the Stitching Feature
- Using Tool Configurations in the XL200 Series Controller
- XL200 Error Codes
- XL200 Parameters
-
- BOSS Shear
- Brake & Hump - XL200CLU
- Calculating Press Reaction
- Checking Press Consistency with Oscilloscopes
- Closed Loop Flying Die / Die Accelerator
- Closed Loop Stopping
- Coil End Point
- Extending XL200 Controls with PLC Integration
- Open Loop Flying Die
- Open Loop Stopping / Feed-to-Stop
- Tailout Sensor
-
Eclipse Support
-
- A Case for Computer Integrated Manufacturing (CIM)
- Benefits of Computer Integrated Manufacturing (CIM) - Deutsch
- Coil Inventory Management with CIM
- Improving Production Capacity with Computer Integrated Manufacturing (CIM)
- Mistakes Happen! CIM for Mistake Prevention in Roll Forming
- Roll Forming and Industry 4.0
- The Quality Gap
-
- Automatically Starting Eclipse Classic
- Cable Specifications for RS Communication
- Coil Validation
- Creating an Eclipse Classic Package File
- Deleting Done Orders in Eclipse Classic
- Eclipse Classic Hardware Requirements
- Eclipse Classic Permissions - XLSecurity.exe
- Eclipse Connections
- Eclipse Data Exchange Options
- Establishing Communication with Eclipse
- Implementing Scrap, Delay, and Employee Codes in Eclipse Classic
- Interfacing Eclipse to External Data Systems - Importing and Exporting
- Material Code Query
- Missing Snapshot or Dates for Reports in Eclipse Classic
- Order Downloading Options in Eclipse Classic
- Performing Eclipse Classic Automatic Backups
- Performing Eclipse Classic Manual Backups
- Preventative Maintenance Made Easy
- Replacing a Controller / Recovery from a Memory Clear
- Reporting from Archived Data
- Reporting from Archived Data
- Requesting Eclipse Classic Support
- Sending Saved Parameters or Tool Libraries from Eclipse Classic to XL Controller
- Using a Proxy Server
- VLINX ESR901 Converter Installation and Configuration
- Show all articles ( 10 ) Collapse Articles
-
Pathfinder Support
-
- Calibrating the Backgauge - Pathfinder v2
- Calibrating the Machine - Pathfinder v2
- Calibrating the Touchscreen - Pathfinder v2
- Cleaning Controller Screens
- Extracting the Pathfinder SDF from a 5XXX/6XXX Machine
- Installing TeamViewer
- Pathfinder PC Backup/Restore/Import Procedure - Pathfinder v2
- Pathfinder PC BIOS Configuration - 5X00
- Pathfinder PC BIOS Configuration - 6X00
- Solving Memory Loss and Computer Lockup Problems
- XL250BB Backup/Restore Function
-
- FoldGuard Alignment Guide
- FoldGuard Alignment Guide - LZS-2-FG
- FoldGuard Brochure
- FoldGuard Encoder Installation Manual 1-02
- FoldGuard Frequently Asked Questions (FAQ)
- FoldGuard Operation Manual
- FoldGuard System Installation Manual 1-06
- FoldGuard System Installation Manual 1-07
- Laser Distortion Causes and Solutions Manual 1-02
-
MP Series Support
-
- MP300 Series Controller Manual
- MP300CL Series Controller Manual
- MP325 Manual
- MP328 Gripper Manual
- MP328CL Gripper Manual
- MP338 Backgauge Manual
- MP338DH Dual Backgauge Manual
- MP342 Manual
- MP343 Manual
- MP350PFD Manual
- MP450S Installation Guide
- MP465 Installation Guide
- MP465 Operator Manual
- MP465N Operator Manual NTM
-
-
Pathfinder Edge Support
-
- Accessing Pathfinder Edge
- Installing TeamViewer
- Logging into Pathfinder Edge
- Pathfinder Edge - Profile Object Format
- Pathfinder Edge Published API
- Print an Approval or Production Sheet - Edge
- Understanding Settings - Edge
- Using Categories and Subcategories - Edge
- Using the Profile Editor - Edge
- Using the Profile Library - Edge
-
Eclipse Pro Support
- Alert: Eclipse-COMM may be offline
- Alert: Material code XXXXXXXX does not correspond to a known material
- Checking the Status of Eclipse Pro Services
- Connect to Eclipse Pro from a Network Connected Device
- Eclipse Pro Hardware Requirements
- Eclipse Pro Product Sheet
- Eclipse Pro Product Sheet - Spanish
- Eclipse Pro Release Notes
- Eclipse Pro Scheduler
- Eclipse Pro Wallboard Andon App Setup
- Error: "Duplicate material codes. MATERIAL =..."
- Machine Performance Standards
- Nucor Case Study
- Requesting Eclipse Pro Support
- Schedule Sync Table Definition
- Updating Eclipse Pro
- Show all articles ( 1 ) Collapse Articles
-
Accessories Support
-
- 4805-XX and 3805-XX Encoder Cable Comparison
- BRKT-2 Assembly STEP File
- Encoder 10-Turn Test
- Encoder Bracket BRKT-1 Dimensional Drawing
- Encoder Bracket BRKT-2 Assembly Dimensional Drawing
- Encoder Bracket BRKT-2 Dimensional Drawing
- Encoder Brochure
- Encoder Sell Sheet
- Encoder Splitter 6390 Electrical Block Diagram
- Encoder Splitter 6390 Sell Sheet
- Encoder Splitter 6390 Shell STEP File
- Encoder Splitter Module 6390 Guide
- Encoder STEP File
- Encoder Tracking and Mounting
- Encoder Wheel KMW Dimensional Drawing
- Encoder Wheel PMW Dimensional Drawing
- KMW-12 Knurled Encoder Wheel STEP File
- NXXXX Encoder Assembly STEP File
- Scrap Reduction Using Two Encoders
- Troubleshooting Encoder Alignment
- Show all articles ( 5 ) Collapse Articles
-
Legacy Product Support
-
- About the MP401
- Cleaning Controller Screens
- CMP1000 Reference Manual
- CMP11-10 Reference Manual
- CMP12 Reference Manual
- MP100 Reference Manual
- MP101 Reference Manual
- MP101 v2 Reference Manual
- MP103 Reference Manual
- MP103 v3 Reference Manual
- MP237 Reference Manual
- MP257 Reference Manual
- MP37 Reference Manual
- MP38 Reference Manual
- MP39 Reference Manual
- MP401 User Manual
- MP43 Reference Manual
- MP44 Reference Manual
- MP450 Installation Guide
- MP450 Operator Manual
- MP450S Installation and Technical Reference Manual
- MP450S Installation Guide
- MP450S Operator Manual
- MP450Z Operator Manual
- MP46 Reference Manual
- MP465N Operator Manual NTM
- MP54 Reference Manual
- MP55 Reference Manual
- MP550 Operator Manual
- MP56 Reference Manual
- MP57 Reference Manual
- Show all articles ( 16 ) Collapse Articles
-
Checking Press Consistency with Oscilloscopes
For open loop flying die processes, press consistency is critical. The ability of the press to perform its operation in a repeatable fashion is directly linked to length tolerance.
Press reaction time is the amount of time it takes for the press to receive the signal to begin its operation and make contact with the material. If reaction time is stable and consistent, the resulting part lengths should be stable and consistent. That’s because speed, time, and distance are in direct proportion with each other:
s · t = d
s = speed
t = time
d = distance
If speed is consistent, but time varies, distance must also vary. Because of this, open loop flying die applications rely heavily on the ability of the equipment to behave in a repeatable fashion. When a press’s reaction time is suspect, maintenance or engineering can test the press timing to verify its operation.
To check the timing of a press, the following equipment is required:
- 2-channel oscilloscope
- Magnetic base
- High-speed proximity sensor or accelerometer (sensor)
- Bracket to mount sensor to magnetic base
Begin by removing material from the press die. This test should be performed while the machine is standing still. There is absolutely no need to perform this test while the machine is in motion. Whatever time is required to fire the press is the same amount of time, regardless of the speed of the material.
Mount the sensor to its bracket, and fix the bracket to the magnetic base. Wire voltage to the sensor. Mount the magnetic base as close to the press as possible, and set the sensor so it will detect the press tooling at the bottom of the stroke.
Connect one probe of the O’scope to the press fire signal from the length control system. Connect the other probe to the output signal of the sensor. Test fire the press a few times to be sure the proximity sensor is picking up the tooling as close to the bottom of the press stroke as possible. Also, verify the magnetic base is not moving due to vibration from the press.
Once all the components are physically in place and verified, set the O’scope to trigger off the press fire signal of the length controller. This test will display two pieces of information – the true reaction time of the press (though this can be found in a much simpler way), and any variance in the reaction time.
Each time the length controller fires its output, the O’scope should display the transition of the press fire output, as well as the transition from the sensor. The time difference between the two signals is the press reaction time.
Manually fire the press through the length controller at least 50 times to be sure the full range of reaction variance is displayed. Each time the O’scope updates the signals, record the time. The maximum and minimum times are the reaction time variance from the press, solenoid and any relays or boards between the output of the length controller and the press tooling contacting the material.
Many O’scopes have slider bars on their display that can be used to mark the trigger points of signals. They make measuring the time variance convenient. Once the total time variance is known, multiply the time in seconds by the maximum line speed in inches per second. The result should be the length variance from the machine. Any additional variance is probably attributable to encoder tracking issues.