Battery Bank Charge & Depletion Info

Displays the colour-coded percentage of charge and depletion of batteries when solar cells are not charging.​ Needed: - Battery bank of course. - Cable Analyzer. (Wrap this around the heavy cables leading out from the batteries to power your base, and connect the data output to this IC circuit.) - Small transformer and/or power controller to isolate IC circuit. - 2 x Logic IO (Both set as Batch Readers) - IC Housing - IC10 Integrated Circuit - 2x Kit (Console) set to either large, medium or small LED Displays, connected to IC circuit. - Computer - Motherboard (Integrated Circuit (IC10)) Set one batch reader to: TYPE (Station Battery) VAR (Charge) MTHD (Average) Set second reader to: TYPE (Station Battery) VAR (Maximum) MTHD (Sum) IC Housing screws set to: D0 - First batch reader (VAR:Charge/Average) D1 - Power Available LED display D2 - Power Usage LED Display D3 - Cable Analyzer D4 - Second batch reader (VAR:Maximum/Sum) Use a computer with the motherboard inserted, use the Edit button to open the script editor and paste the code in there. Be careful not to accidentally delete or add lines to the code. It should have 53 lines. Next, use Confirm and Export to finish the task. The computer and motherboard can then be removed from the circuit once you're done. How does it really work! Well, as for the Power Available LED Display, the current average charge of the battery bank is determined and divided by the maximum charge for one battery. This provides a percentage of how much average charge is left in your battery bank. Values from 0-25 are colour coded red, 25-50 in orange, 50-75 in yellow, 75-90 in green, and 90-100 in blue. The Power Available LED Display assumes that there are 1200 seconds in one day cycle. PowerActual is multiplied by 1200 to determine how many Watts will be used throughout the day cycle, momentarily assuming that the current actual power will continue at the same rate for the whole day cycle. This result is then multiplied by the pr