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SWITEK IML Robot Operating Instruction -- 3.7.2 Mechanical Parameters

High Performance Side Entry IML Robot

Keywords:IML Robot; IML Robot Operating; In Mold Labeling Robotics

SWITEK IML Robot Operating Instruction -- 3.7.2 Mechanical Parameters

Abstract

The mechanical parameters setting of the IML robot include the selection of the modular of the function unit, the mechanical parameter of the axis, the servo motor etc. to ensure that the IML robot is working safely and efficiently.

Model Selection

iml robot controller
No. Name Function
(1) Model selection Click here to select the applicable mode name.
(2) Save After selecting (1) the model, click "Save" to confirm the operation.
(3) The information of the selected model is displayed The section of the information is displayed for the models to help you distinguish between them. (This part of the information in the model needs to be maintained during producdtion to maintain accuracy.)

Please note that the above operation, model selection - saving, after the completion of the model content does not take effect immediately, need to be initialized in mechanical parameters, servo parameters - saving, and then the system restarts, will take effect.

Mechanical Parameters

iml robot controller
No. Name Function
(1) Initialize Clicking on it will read the initial data of the mechanical parameters in the model file and feedback it to the display at (4).
(2) Save Save existing changes
(3) Page Parameters are scrolled up and down.
(4) Mechanical Parameter content
  • The amount of movement of the motor in one revolution: The actual distance of the servo motor in one rotation and advance of the mechanical structure.
  • The number of pulses in one revolution of the motor: The number of pulses required for one revolution of the servo motor (it must be consistent with the number of pulses after the frequency doubling of the driver). Panasonic motors are generally 10000, and Yaskawa motors are generally 8192.
  • Maximum number of revolutions: The maximum speed allowed to be achieved by servo operation (i.e. the maximum speed of 100% gear when automatic).
  • In-place detection amount: Set the distance at which the shaft runs in place in advance to start the next command (setting too much may cause impact).
  • Origin Correction: The existing origin position can be offset in the positive or negative direction (the origin position is preferably in the middle section of the trigger iron piece).
  • Origin Return Speed: Set the speed at which the origin is automatically returned.
  • Free Operation (Low Speed): The actual operating speed of the speed of the low gear when setting the manual "Free Operation".
  • Free Operation (Medium Speed): The actual operating speed of the medium gear when setting the manual "Free Operation".
  • Free Operation (High Speed): Set the actual operating speed of the speed of the high gear when manually "Free Operation".
  • Minimum acceleration and deceleration time: Set the acceleration and deceleration time of the lowest gear among the 26 "acceleration and deceleration" gears.
  • Maximum acceleration and deceleration time: Set the acceleration and deceleration time of the highest level in the 26 gears of "Acceleration and Deceleration".
  • Fuel Distance Setting: Set the fuel distance in Maintenance.

Please note that the modification of the above parameters does not take effect immediately, but needs to be saved, and will only take effect after the system restarts.

Drive parameters

iml robot controller
No. Name Function
(1) Initialize Clicking on it will read the initial data of the drive parameters in the model file and feedback it to the display at (4).
(2) Save Save existing changes.
(3) Page Parameters are scrolled up and down.
(4) Drive parameter content Each driver parameter is edited and displayed.

Instructions for setting some drive parameters:

No. Name Effect Initial Value Range Unit The main point of the setting
PA1-02 INC/ABS System selection Reboot 0 0~1 "0" is an incremental motor, "1" is an absolute motor
PA1-04 Direction of rotation Reboot 0 0~1 Adjust when the motor rotates in the wrong direction
PA1-13 Tuning mode Realtime 0 0~2 0 is automatic, 1 semi-automatic, 2 manual. The robot is set to 1 when it is shipped.
PA1-14 Load-to-torque ratio Realtime 23.0 0.0~300 Times
PA1-15 Tuning gain Realtime 7 1~40
PA1-27 Forward torque limit value Realtime 300 0~500
PA1-28 Negative torque limit value Realtime 300 0~500
PA1-52 S acc/dcc setting Realtime 0.0 0.0~1000.0
PA1-54 A fixed number of position command answers Realtime 30.0 0.00~250.00
PA1-55 Position Ring Gain 1 Realtime 17 1~2000
PA1-56 Speed Ring Gain 1 Realtime 5 1~2000
PA1-58 Feedback Gain 1 Realtime 0.000 0.000~1.500
PA1-59 Torque filtering Reboot 0.00 0.00~20.00
PA1-70 Notch filter mode Realtime 1 0~1 When 0, the automatic detection 1 is valid for the set value
PA1-71 Notch 1 frequency number Realtime 134 10~4000
PA1-72 Notch 1 attenuation Realtime 1 0~40
PA1-73 Notch 1 width Realtime 2 0~3
PA1-74 Notch 2 frequency number Realtime 53 10~4000
PA1-75 Notch 2 attenuation Realtime 1 0~40
PA1-76 Notch 2 width Realtime 2 0~3
PA1-78 The frequency number 0 of the braking anti-resonance Realtime 7.0 1~300.0 Hz Vibration suppression is effective when stopping, and it is necessary to measure the actual vibration before setting.
PA1-79 Brake vibration inertia ratio Realtime 0 0~80 If it is set to 0, PA1-78 will be invalid, and when it is set to 1, PA1-78 will be valid.
PA1-80 The frequency number 1 of the braking anti-resonance Realtime 8.0 1~300.0 Hz Vibration supression is effective when stopping, and it is necessary to measure the actual vibration before setting.
PA1-81 Brake vibration inertia ratio Realtime 0 0~80 If it is set to 0, PA1-80 is invalid, and when it is set to 1, PA1-80 is valid.
PA1-94 Torque filter mode Reboot 0 0~1 Set to 0 and do not use torque filtering
PA2-64 Brakek action time Realtime 0 0.00~99.9 Sec
PA2-65 Retrograd resistance selection Reboot 1 0~1 Set 1 when the regeneration resistor is connected, and 0 when not connected
PA2-69 Deviation over detected value Realtime 15.0 0.1~100.1 Rev
PA3-79 Retrograde impedance value setting Realtime 30.0 3.9~160.0 Ω The value of the regenerative resistance is set
PA3-80 Respawn impedance power setting Realtime 40 1~5000 W Retroactive resistance capacity setting

Easy set-up-tuning mode

iml robot controller
No. Name Function
(1) Axis selection Click to select the axis you want to work on.
(2) Auto-tune When the machine is adjusted before leaving the factory, the drive parameters can be deduced in this mode.
Semi-automatic tuning Semi-automatic tuning mode, some parameters are fixed, and some parameters will be fine-tuned.
Manual tuning All drive parameters are fixed.
(3) Set value The tuned gain, to-inertia-to-torque ratio currently in use.
(4) Calculated value The value derived from the current calculation.
(5) iml robot operating Apply the Calculated Value content to the Set Value.
(6) iml robot operating Apply the contents of the "Set Value" to the "Calculated Value".
(7) Save Modify and save the current driver parameters.

When automatic, you can switch the tuning mode of each axis on this interface, modify the inertia-torque ratio and tuning gain, so as to observe the operation effect of the set values in real time and find more reasonable parameter settings.

  • Auto-tune mode

    When set to auto-tuning mode, the parameter PA1-14 inertia-torque ratio is measured in real time.

    The main function of the automatic tuning mode is to automatically adjust the value according to the running effect when the appropriate driving parameters are not know at the initial stage of debugging, until the running effect is good and stable, and the inertia-torque ratio value will tend to be constant.

  • Semi-automatic tuning mode

    When the running effect is stable, switch to the semi-automatic tuning mode, manually set the parameters, save them, turn off the power and restart them again before the parameters are effective. In the semi-automatic tuning mode, the main parameters such as the "inertia torque ratio" will be fixed, and some servo parameters will still be adjusted in real time to ensure smooth operation.

  • Manual tuning mode

    When set to "Manual Tuning Mode", all servo parameters are fixed. This mode requires a high degree of precision in the parameters set.

Easy Setup - Notch Filter Setting

iml robot controller
No. Name Function
(1) Axis selection Click to select the axis you want to work on.
(2) Adaptive filtering Adaptive filtering function ON/OFF switching.
(3) Notch filtering related parameters Various parameters related to the notch filtering function.

If there is a sharp sound in the servo ON at the moment or during operation, the adaptive filter can be set to ON, which will automaticall elimitate the abnormal sound caused by mechanical resonance, and can eliminate two resonance points. When the resonance frequency is set to 4000, there is no resonancde point.

Easy Setup - Vibration Control Setting

iml robot controller
No. Name Function
(1) Axis selection Select the axis you want to operate.
(2) Auto-adjust The relevant parameters of the set vibration control are automatically detected.
(3) Set value Vibration control parameters currently in use.
(4) Calculated value Calculate the derived numeric value.
(5) iml robot operating Apply the Calculated Value content to the Set Value.
(6) iml robot operating Apply the contents of the "Set Value" to the "Calculated Value".

Vibration control setting: It is effective for suppressing vibration when stopping, and the general setting value is 5-10. The setting value can be calculated briefly based on the torque waveform, and it is difficult to set it correctly at the first time.

Easy Setup - Collision Detection

iml robot controller
No. Name Function
(1) Axis Selection The axis selection to set
(2) Maximum torque variation


Hybrid Injection Molding Machine for Laboratory Consumable Petri Dish Injection Molding -- HD300KDY
Haida hybrid Injection Molding Machine
HD300KDY

HD300KDY -- HaiDa Hybrid Injection Molding Machine

No. Name Value
1 Clamping Force 3000 kN
2 Shot Weight 402 g
3 Shot Speed 350 mm/s
4 Screw Diameter 50 mm
5 Opening Stroke 550 mm
6 Space Between Tie Bars 590 x 590 mm
7 Mold Thickness (Min) 220 mm
8 Mold Thickness (Max) 600 mm
9 Pumper Motor 147 kW
10 Heating Capacity 21 kW

Injection Automation Application -- Side Entry Petri Dishs Injection Molding Automation Solution
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SIDE ENTRY PETRI DISH PACKING SOLUTION

Introduction of SWITEK Side Entry Petri Dish Packing System

The SWITEK side entry petri dish packing system is a custom made automation system for the stable production of laboratory consumable plastic petri dish with the picking robot, the petri dish assembly, stacking, packing unit etc. integrated as auniformed system for the efficient and stable production of the petri dish. The system can be custome made for a petri dish mold layout design of 2+2, 4+4, 6+6, 8+8 etc.

Functional Units of SWITEK Top Entry Petri Dish Packing System
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  • (1) -- Side Entry Robotic Arm: The picking arm of the packing system in handling the picking of the petri dish from the injection molding machine and place them on the assembly unit.
  • (2) -- Injection Mold: The core injection unit to shape the petri dish, it can be 2+2, 4+4, 6+6, 8+8 configuragion of the petri covers and bottoms.
  • (3) -- Petri Dish Assembly Unit: Have the cover and bottom of the petri dish assembled and drop it on the conveyor.
  • (4) -- Sorting Conveyor: Lined the assembled petri dish sets for stacking before packing.
  • (5) -- Stacking Station: Have the well assembled petri dishes stacked up as requested (5/10/15/20/25 sets etc.).
  • (6) -- Petri Dish Packing Unit: Have the well stacked petri dish packed and sealed with optional function of vacuume the bag.
  • (7) -- Petri Dish Transfer Robot: Catch the well sealed petri dish bag and drop it to the conveyor.
  • (8) -- Petri Dish Dropping Conveyor: Deliver the well packed petri dish.
  • (9) -- Injection Molding Machine: The injection unit of the whole syste.

Installation Dimension of SWITEK Side Entry Petri Dish Packing System
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Productivity of SWITEK Side Entry Petri Dish Packing Solutions
    Vacuumed Sleeve Packing
  • 10 Sets/Bag --Injection Cycle time: 9s
  • 20 Sets/Bag --Injection cycle: 6s
  • 25 Sets/Bag --Injection Cycle: 5.5s
    Non-vacuumed Sleeve Packing
  • 10 Sets/Bag --Injection Cycle time: 6.5s
  • 20 Sets/Bag --Injection cycle: 6s
  • 25 Sets/Bag --Injection Cycle: 5.5s

Mold Layout Design & Sleeve Size for the Petri Dish Packing System
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Mold Layout Deisgn

petri dish packing solution

Sleeve Size for Package with Vacuum Request

petri dish packing solution

Sleeve Size for Package without Vacuum Request

petri dish packing solution

Sleeve (With Mark) Size for Package with Vacuum Request

petri dish packing solution

Sleeve (With Mark) Size for Package without Vacuum Request

I think you'll have an overall understanding about the SWITEK top/side entry petri dish packing system. If you still have any other question about it or need any help in your petri dish production project, please feel free to contact SWITEK laboratory consumable plastic parts injection molding solutions team for more information.


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