Aimco Brakes AcraDyne ToolWare v3010 Manual for iEC Systems
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39 2.8.2 Select Parameter Set To view results of all saved rundowns, regardless of Paramete r Set, select zero (0) To view results of rundowns for a specific Parameter Set, select the appropriate Parameter Set number To select the colums you want to see, select cus tom and choose the columns from the selection menu You can restrict the number of rundowns you want to see by selecting the Max. Rows (0 means all) The Rundowns are ordered by latest first. So the Recent Rundown will be the first record to be downloaded. You can stop download at any time and analyse the records that are downloaded. To begin rundown data download, click “Start Rundown Receive” Note : Statistics functionality requires “All Data” to be selected.
40 Figure 2.8 Rundown Log example 2.9 Log Info Log info describes the usage of the Controller and the tools that have been used with that controller. POR Counts - Number of times the controller power has been cycled. Controller Cycles - Number of rundown the controller has completed . Tool Log - Displays history of tools that have been previously connected to the controller . Monthly Usage - Displays history of the number of rundowns the controller has preformed divided in to months and years. Note : Serial/Model number entries in usage log are abbreviated for functionality will legacy tools.
41 Figure 2.9 Tool / controller Log Info example 2.10 Statistics The statistics page takes a collection of final torque samples from a rundown file then calculates and displays statistical information about the collection. In addition, a histogram is plotted, and the fi nal torque for each rundown is displayed graphically. The maximum number of rundowns that can be evaluated is 2048. If more data is stored in the file, then data for only first 2048 rundowns are used. Torque values are displayed in the units shown on the Main Window toolbar. Rundown Files are saved using Toolware with *.MS.csv extension. This file type can be generated in the Rundowns page by receiving rundown data, then saving the data to a type *.MS.csv file. We can open this using the File - > Open option.
42 Figure 2.10 Statistics screen example PSet Selection (Parameter Set): a. Only rundowns with the PSet selected are used in the collection. In addition, Only Rundowns with settings for Torque High Limit, Torque Low Limit, and Target that match the first rundown are used in the collection. b. If 0 is selected for the PSet, all rundowns in the file will be used in the collection.
43 Stats: POP: Population; The total number of observations used to calculate the statistical data. Mean: (Sum of All Readings) / (Number of Readings) CP: Overall capability, which is the ratio of 6 sigma to the tolerance. The equation for CP is: (Torque High Limit – Torque Low Limit) / 6 Sigma CPK: Process capability, which takes both sigma and mean into account. The equation for CPK is the smaller of: (Torque High Limit – Mean) / 3 Sigma or (Mean – Torque Low Limit) / 3 Sigma 6 Sigma: The standard deviation multiplied by 6. A total range of 6 sigma will include 99.7% of all data. The equation for six sigma is as follows: 6σ = 6 X Range: The difference between the maximum and minimum reading. Min Tq: The maximum torque reading. Max Tq: The minimum torque reading.
44 Histogram of Final Torque Samples The histogram shows the frequency count of the number of times that a specified interval, or bin, occurs in the collection of final torque samples. The range of the histogram is equally divided in to a specified number bins using the following equations: The width of the frequency bin is o o Where: m is the selected Number of Bins . max is the upper ceiling for the torque range to be evaluated ( Range Ceiling ) min is the lower floor for the torque range to be evaluated ( Range Floor ) The center points of each bin are set according to the following equation: o For reference, the Parameter Set v alues for Torque Hi, Torque Low, and Torque Target are taken from the first rundown in the collection and plotted as horizontal lines. Histogram adjustment: The width, center point, and number of bins can be adjusted by selecting different values for Range Ceiling, Range Floor and the Number of Bins. Number of Bins Selection: The histogram initially uses the number of rundowns in the collection for the number of bins. If there are more than 200 rundowns, then the number of bins is set to 200. The number of bins can be adjusted from 2 to the number of rundowns + 1. Range Ceiling Adjustment: This value is initially set to the maximum torque sample rounded up to the next higher integer. This can be adjusted in increments of 0.1 Range Floor Adjustment: This value is initially set to the minimum torque sample rounded down to the next lower integer. This can be adjusted in increments of 0.1 Bin width and center points will be updated on a change to these values.
45 Final Torque Sample Graph The Final Torque Sample graph shows the final torque of each rundown in the collection. For reference, the Parameter Set values for Torque Hi, Torque Low, and Torque Target are taken from the first rundown in the collection and plotted as vertical lines. 2.11 AcraVision AcraVision displays the current rundown information in an easy to read screen. If there is a failure in the tightening the Torque/Angle is displayed in red. Use Record Rundowns to save the Rundown information straight to the Computer memory. You can use View saved rundowns to see the saved rundowns. Figure 2.11 AcraVision Screen example
46 2.12 System 2.12.1 Serial Test Hyper -terminal like screen that can be used to monitor the serial output messages from the iEC controller 3. Addendum 3.1 Fault codes Fault codes are displayed to inform the operator about what is happening in the Controller and why something doesn’t behave as expected. Figure Add.3.1 Fault Codes
47 3.2 Trouble Shooting Fault Description TID Timeout: No Communication between the tool and controller. This fault condition is usually caused by a problem in the tool ID board. Try connecting another tool to the controller Tool GND: The tool ground loop is broken. This fault condition is usually caused by a problem in the controller or tool . Try the tool and cable on another controller. The fault can be intermittent. Power on Throttle: The System thinks that the throttle is being activated or the run command through logic I/O is turned on. You can verify this by monitoring the tool buttons in toolware. Make sure that the throttle is completely returning home completely after being released. Button Timeout : The button signals from the tool are not being received by the controller in a certain amount of time. Try connecting another tool to the system. Button State : An illegal light ring state has occurred. Two or more direction halls are enabled. You can verify this by monitoring buttons using ToolWare. Try recalibrating the buttons using ToolWare (CW, C enter, and CCWorTrigger and MFB button Undefined Voltage : Either the controller voltage configuration or the tool voltage parameter are undefined. Try the tool on another system. Incompatible Voltage : The controller is not compatible with the tool. Illegal tool: A tubenut tool is connected to a system setup for multiples. Free Run Timeout : The tool has run for a period of time before seeing the threshold torque. The throttle must be released and pressed again before the tool will run again. This tim e is adjustable using ToolWare. The default value is 5 seconds. Load Run Timeout : The tool has run for a period of time after seeing the threshold torque. The throttle must be released and pressed again before the tool will run again. This time is adjustable using ToolWare. The default value is 15 seconds. Hall Error: The motor hall sensors (for commutation) have achieved an illegal state a specific number of times. If the tool does not run at all or the square drive has to be rotated before the tool will run the motor is probably damaged. Run this tool on a different controller to determine where the problem lies. Tool Offset : Based on the offset value of the transducer during re- zero and the tool cal value, the tool cannot mathematically reach the target torque. This problem can occur if the cal value has been drastically changed and the target torque in near the max torque of the tool. Try resetting the cal value to defaults and calibrating the tool using an approved rotary transducer.
48 Tool Level: The tool transducer output voltage has exceeded the maximum or minimum allowable value. Try the tool on another system. Locked rotor : The controller has not sensed hall transitions from the motor for a period of time. This is possible if the tool is trying to achieve a high torque at a low speed. Increase the rundown speeds and make sure the tool is calibrated properly. It is also possible that the controller is faulty. If the tool does not run at all try connecting it to a different controller. Drive Fault : The servo drive is not trying to run the tool. Try the tool on another controller. PSet Value : An illegal rundown parameter set has been sent to the controller. Try resetting the parameter sets back to factory defaults. TID Parameter Value: The tool sent an illegal parameter to the controller. Try cycling power to the system. Also, try the tool on another system. TID Parameter Timeout : The tool did not respond to a requested parameter for a period of time. Try cycling power to the system. Also, try the tool on another system. Target Value Fault : The target torque is set higher than the capacity of the tool. No Direction Hall : The tool was told to start running either from the throttle or through logic I/O but it wasn’t told what direction to go. Use ToolWare to monitor the buttons. Make sure the wiring to the I/O is correct if running the tool remotely. Xdcr Level : The tool transducer output voltage has exceeded the maximum or minimum allowable level.