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KAILAS SREE CHANDRAN
  CLASS: S7 INDUSTRIAL 432

  Guide: V REGIKUMAR

OVERALL EQUIPMENT EFFECTIVENESS
              OEE
MODERN APPROACH TO

OVERALL EQUIPMENT EFFECTIVENESS


               OEE
2
3
4
5
 Loss due to breakdown of equipment.
     Loss is more than 10 minutes.
6    Biggest of SIX BIG LOSSES.
      Tooling Failures
      Unplanned Maintenance
      General Breakdowns
      Equipment Failure
 The time lost due to adjustments
      in the equipment.
7    Loss is less then 10 minutes.
      Setup/ Changeover
      Material Shortages
      Major Adjustments
 Small stops losses occur when equipment
      stops for a short time as a result of a
      temporary problem.
8    These includes stops that are under ten
      minutes.
       Component Jams
       Misfeeds
       Sensor Blocked
       Delivery Blocked
       Cleaning/ Checking
 Reduced speed refers to the
     difference between Design speed
     and Actual Operating speed.
9
      Under Nameplate Capacity
      Under Design Capacity
      Due to Equipment Wear
      Due to Operator Inefficiency
 Some equipments require warm-
      up time and certain adjustments
10
      to obtain optimum output.
      Startup rejection occurs during
      this startup time.
       Scrap
       Rework
 These losses occurs when products
       produced are not conforming to the
       specifications.
11
      These are rejects during steady-state
       production.
        Scrap
        Rework
12
 The amount of time the facility is open and
       available for operation.
13    One year consists of 365 days, one day
       consists of 24 hours, 60 minutes in one
       hour, 60 seconds in one minute.
      PLANT OPERATING TIME = Fully
       Productive Time + Quality Loss + Speed
       Loss + Downtime Loss + Planned
       Shutdown
PLANT OPERATING TIME
14                                                         PLANNED
     PLANNED PRODUCTION TIME                              SHUTDOWN


                                               DOWNTIME
     OPERATING TIME                              LOSS


                                       SPEED
     NET OPERATING TIME                 LOSS

                             QUALITY
     FULLY PRODUCTIVE TIME
                              LOSS
OEE FACTORS

15
 Availability represents the percentage
       of scheduled time that the equipment is
16     available to operate.
      Availability takes into account Down
       Time Losses.

     AVAILABILITY =         Operating Time
                      Planned Production Time
 Performance represents the speed at
       which the equipment runs as a
17
       percentage of its designed speed.
      Performance takes into account Speed
       loss.

       PERFORMANCE = Net Operating Time
                      Operating Time
 Quality represents the Good units
      produced as a percentage of the Total
18    units produced.

        QUALITY = Fully Productive Time
                   Net Operating Time
PERFORMANCE         AVAILABILITY=
      =Actual Run        Operating time/
     Rate/ Ideal Run        Planned
          Rate           Production Time


19                QUALITY=
                 Good Pieces/
                 Total Pieces
20
21
22
OEE= AVAILABILITY X PERFORMANCE X QUALITY

23   Availability = Operating Time / Planned Production
     Time

     Performance = (Total Pieces / Operating Time) / Ideal
     Run Rate

     Quality = Good Pieces / Total Pieces
 This method use computers for
       accessing inputs, calculating OEE
24
       and its analysis.
      E.g.: OEE IMPACT, VISUAL OEE,
       OEE TOOLKIT, PROVIDEAM etc.
       Spreadsheets
       System Software
o Shift Length: 8 Hours
     o Tea Breaks: 10 Minutes x 2
25
     o Meals Break: 1 Hour
     o Downtime: 10% of shift
     o Idle Runrate: 5 pieces/minute (Cycle
          time=0.2min/pieces)
     o Total Pieces Produced: 1600
     o Rejected Pieces: 52
OEE= Availability x Performance x Quality
     Availability = Operating Time/ Planned
26
       Production Time
     Planned Production Time = Plant Operating
       Time – Planned Shutdown
     Plant Operating Time= 8 hours x 60 = 480 min.
     Planned Shut down = Tea break + Lunch
       Break = (10x2) + 60 = 80minutes.
Planned Production Time = 480-80 = 400 min.
     Operating Time = Planned Production Time-
       Downtime Loss = 400-48 = 352 minutes.
     Availability = 352/400 = 0.88
     Performance = (Total Pieces / Operating Time)/
27
       Idle Run Rate = (1600/352) / 5 = 0.9091
     Quality          = Good Pieces / Total Pieces
                      = (1600-52) / 1600 = 0.9675
     OEE = 0.88 x 0.9091 x 0.9675 = 0.774
     OVERALL EQUIPMENT EFFECTIVENESS = 77.4%
OVERALL EQUIPMENT EFFECTIVENESS (EXCEL CALCULATOR)

     Production Data
     Shift Length               8   Hours =        480 Minutes
     Short Breaks               2   Breaks @        10 Minutes Each =           20 Minutes Total
     Meal Break                 1   Breaks @        60 Minutes Each =           60 Minutes Total
     Down Time                 48   Minutes
     Ideal Run Rate             5   PPM (Pieces Per Minute)
     Total Pieces           1,600   Pieces
     Reject Pieces             52   Pieces


     Support Variable   Calculation                                        Result
     Planned
     Production Time    Shift Length - Breaks                                   400 Minutes
     Operating Time     Planned Production Time - Down Time                     352 Minutes
     Good Pieces        Total Pieces - Reject Pieces                          1,548 Pieces
28
     OEE Factor         Calculation                                         OEE%
     Availability       Operating Time / Planned Production Time             88.00%
     Performance        (Total Pieces / Operation Time) / Ideal Run Rate     90.91%
     Quality            Good Pieces / Total Pieces                           96.75%
     Overall OEE        Availability x Performance x Quality               77.40%


                          World
     OEE Factor                       OEE%
                        Class OEE

     Availability         90.00%      88.00%
     Performance          95.00%      90.91%
     Quality              99.90%      96.75%
     Overall OEE        85.00% 77.40%
 World class OEE is a standard which is used to
       compare the OEE of the firm.
29           OEE Factor        WORLD CLASS
              Availability            90%

             Performance              95%

                Quality               99%
           Overall Equipment
                                      85%
             Effectiveness
30
PLANT OPERATING TIME
                                                                 PLANNED
     PLANNED PRODUCTION TIME                                    SHUTDOWN
31
                                                     DOWNTIME
     OPERATING TIME                                    LOSS


                                          STOPTIME
     RUNNING TIME                           LOSS

                                  SPEED
     NET OPERATING TIME            LOSS

     FULLY PRODUCTIVE   QUALITY
            TIME         LOSS
 Usability takes into account Stop Time
      Loss.
32



        USABILITY = Running Time
                  Operating Time
OEE
33


     Availability   Usability   Performance   Quality
34
o Shift Length: 8 Hours             Downtime
                                         Loss of 48
     o Tea Breaks: 10 Minutes x 2       minutes (10%
                                          of Shift)
     o Meals Break: 1 Hour
35
     o Warm-up Time: 20 minutes
     o Equipment Breakdown(Tool Failure): 28 min.
     o Idle Runrate: 5 pieces/minute (Cycle
          time=0.2min/pieces)
     o Total Pieces Produced: 1600
     o Rejected Pieces: 52
Availability = Operating Time/ Planned
       Production Time
     Planned Production Time = 400 minutes
     Operating Time = Planned Production Time-
       Breakdowns        = 400-28 = 372 minutes.
36
     Availability = 372/400 = 0.93
     Usability = Running time / Operating Time
     Running Time = Operating Time – Warm-up
       Time            = 372-20 = 352 minutes.
     Usability = 352 / 372 = 0.9462
Performance =(Total Pieces / Operating Time) /
       Idle Run Rate = (1600 / 352) / 5 = 0.9091
     Quality    = Good Pieces / Total Pieces
                = (1600-52) / 1600 = 0.9675
     OEE = Availability x Usability x Performance x
37
       Quality
     OEE = 0.93 x 0.9462 x 0.9091 x 0.9675 = 0.774

         Modified OVERALL EQUIPMENT
            EFFECTIVENESS = 77.4%
38
39
 Anil S. Badiger, ‘A proposal: evaluation of
       OEE and impact of six big losses’, Int. J.
       Process Management and Benchmarking,
40
       Vol.2, No. 3, 2008, pp 234-248.
      Ravikumar M. M., ‘Improving Equipment
       Effectiveness’, Int. Business Management,
       Vol. 3, No.2, 2008, pp 91-96.
      www.bestmanagementarticles.com
      www.maintenanceworld.com
Overall Equipment Effectiveness

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Overall Equipment Effectiveness

  • 2. KAILAS SREE CHANDRAN CLASS: S7 INDUSTRIAL 432 Guide: V REGIKUMAR OVERALL EQUIPMENT EFFECTIVENESS OEE
  • 3. MODERN APPROACH TO OVERALL EQUIPMENT EFFECTIVENESS OEE
  • 4. 2
  • 5. 3
  • 6. 4
  • 7. 5
  • 8.  Loss due to breakdown of equipment.  Loss is more than 10 minutes. 6  Biggest of SIX BIG LOSSES.  Tooling Failures  Unplanned Maintenance  General Breakdowns  Equipment Failure
  • 9.  The time lost due to adjustments in the equipment. 7  Loss is less then 10 minutes.  Setup/ Changeover  Material Shortages  Major Adjustments
  • 10.  Small stops losses occur when equipment stops for a short time as a result of a temporary problem. 8  These includes stops that are under ten minutes.  Component Jams  Misfeeds  Sensor Blocked  Delivery Blocked  Cleaning/ Checking
  • 11.  Reduced speed refers to the difference between Design speed and Actual Operating speed. 9  Under Nameplate Capacity  Under Design Capacity  Due to Equipment Wear  Due to Operator Inefficiency
  • 12.  Some equipments require warm- up time and certain adjustments 10 to obtain optimum output. Startup rejection occurs during this startup time.  Scrap  Rework
  • 13.  These losses occurs when products produced are not conforming to the specifications. 11  These are rejects during steady-state production.  Scrap  Rework
  • 14. 12
  • 15.  The amount of time the facility is open and available for operation. 13  One year consists of 365 days, one day consists of 24 hours, 60 minutes in one hour, 60 seconds in one minute.  PLANT OPERATING TIME = Fully Productive Time + Quality Loss + Speed Loss + Downtime Loss + Planned Shutdown
  • 16. PLANT OPERATING TIME 14 PLANNED PLANNED PRODUCTION TIME SHUTDOWN DOWNTIME OPERATING TIME LOSS SPEED NET OPERATING TIME LOSS QUALITY FULLY PRODUCTIVE TIME LOSS
  • 18.  Availability represents the percentage of scheduled time that the equipment is 16 available to operate.  Availability takes into account Down Time Losses. AVAILABILITY = Operating Time Planned Production Time
  • 19.  Performance represents the speed at which the equipment runs as a 17 percentage of its designed speed.  Performance takes into account Speed loss. PERFORMANCE = Net Operating Time Operating Time
  • 20.  Quality represents the Good units produced as a percentage of the Total 18 units produced. QUALITY = Fully Productive Time Net Operating Time
  • 21. PERFORMANCE AVAILABILITY= =Actual Run Operating time/ Rate/ Ideal Run Planned Rate Production Time 19 QUALITY= Good Pieces/ Total Pieces
  • 22. 20
  • 23. 21
  • 24. 22
  • 25. OEE= AVAILABILITY X PERFORMANCE X QUALITY 23 Availability = Operating Time / Planned Production Time Performance = (Total Pieces / Operating Time) / Ideal Run Rate Quality = Good Pieces / Total Pieces
  • 26.  This method use computers for accessing inputs, calculating OEE 24 and its analysis.  E.g.: OEE IMPACT, VISUAL OEE, OEE TOOLKIT, PROVIDEAM etc.  Spreadsheets  System Software
  • 27. o Shift Length: 8 Hours o Tea Breaks: 10 Minutes x 2 25 o Meals Break: 1 Hour o Downtime: 10% of shift o Idle Runrate: 5 pieces/minute (Cycle time=0.2min/pieces) o Total Pieces Produced: 1600 o Rejected Pieces: 52
  • 28. OEE= Availability x Performance x Quality Availability = Operating Time/ Planned 26 Production Time Planned Production Time = Plant Operating Time – Planned Shutdown Plant Operating Time= 8 hours x 60 = 480 min. Planned Shut down = Tea break + Lunch Break = (10x2) + 60 = 80minutes.
  • 29. Planned Production Time = 480-80 = 400 min. Operating Time = Planned Production Time- Downtime Loss = 400-48 = 352 minutes. Availability = 352/400 = 0.88 Performance = (Total Pieces / Operating Time)/ 27 Idle Run Rate = (1600/352) / 5 = 0.9091 Quality = Good Pieces / Total Pieces = (1600-52) / 1600 = 0.9675 OEE = 0.88 x 0.9091 x 0.9675 = 0.774 OVERALL EQUIPMENT EFFECTIVENESS = 77.4%
  • 30. OVERALL EQUIPMENT EFFECTIVENESS (EXCEL CALCULATOR) Production Data Shift Length 8 Hours = 480 Minutes Short Breaks 2 Breaks @ 10 Minutes Each = 20 Minutes Total Meal Break 1 Breaks @ 60 Minutes Each = 60 Minutes Total Down Time 48 Minutes Ideal Run Rate 5 PPM (Pieces Per Minute) Total Pieces 1,600 Pieces Reject Pieces 52 Pieces Support Variable Calculation Result Planned Production Time Shift Length - Breaks 400 Minutes Operating Time Planned Production Time - Down Time 352 Minutes Good Pieces Total Pieces - Reject Pieces 1,548 Pieces 28 OEE Factor Calculation OEE% Availability Operating Time / Planned Production Time 88.00% Performance (Total Pieces / Operation Time) / Ideal Run Rate 90.91% Quality Good Pieces / Total Pieces 96.75% Overall OEE Availability x Performance x Quality 77.40% World OEE Factor OEE% Class OEE Availability 90.00% 88.00% Performance 95.00% 90.91% Quality 99.90% 96.75% Overall OEE 85.00% 77.40%
  • 31.  World class OEE is a standard which is used to compare the OEE of the firm. 29 OEE Factor WORLD CLASS Availability 90% Performance 95% Quality 99% Overall Equipment 85% Effectiveness
  • 32. 30
  • 33. PLANT OPERATING TIME PLANNED PLANNED PRODUCTION TIME SHUTDOWN 31 DOWNTIME OPERATING TIME LOSS STOPTIME RUNNING TIME LOSS SPEED NET OPERATING TIME LOSS FULLY PRODUCTIVE QUALITY TIME LOSS
  • 34.  Usability takes into account Stop Time Loss. 32 USABILITY = Running Time Operating Time
  • 35. OEE 33 Availability Usability Performance Quality
  • 36. 34
  • 37. o Shift Length: 8 Hours Downtime Loss of 48 o Tea Breaks: 10 Minutes x 2 minutes (10% of Shift) o Meals Break: 1 Hour 35 o Warm-up Time: 20 minutes o Equipment Breakdown(Tool Failure): 28 min. o Idle Runrate: 5 pieces/minute (Cycle time=0.2min/pieces) o Total Pieces Produced: 1600 o Rejected Pieces: 52
  • 38. Availability = Operating Time/ Planned Production Time Planned Production Time = 400 minutes Operating Time = Planned Production Time- Breakdowns = 400-28 = 372 minutes. 36 Availability = 372/400 = 0.93 Usability = Running time / Operating Time Running Time = Operating Time – Warm-up Time = 372-20 = 352 minutes. Usability = 352 / 372 = 0.9462
  • 39. Performance =(Total Pieces / Operating Time) / Idle Run Rate = (1600 / 352) / 5 = 0.9091 Quality = Good Pieces / Total Pieces = (1600-52) / 1600 = 0.9675 OEE = Availability x Usability x Performance x 37 Quality OEE = 0.93 x 0.9462 x 0.9091 x 0.9675 = 0.774 Modified OVERALL EQUIPMENT EFFECTIVENESS = 77.4%
  • 40. 38
  • 41. 39
  • 42.  Anil S. Badiger, ‘A proposal: evaluation of OEE and impact of six big losses’, Int. J. Process Management and Benchmarking, 40 Vol.2, No. 3, 2008, pp 234-248.  Ravikumar M. M., ‘Improving Equipment Effectiveness’, Int. Business Management, Vol. 3, No.2, 2008, pp 91-96.  www.bestmanagementarticles.com  www.maintenanceworld.com