DP-R1 System for detection & response to production disruptions FR-R1 Respond rapidly to production disruptions FR-R12 Communicate problems to the right.

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DP-R1 System for detection & response to production disruptions FR-R1 Respond rapidly to production disruptions FR-R12 Communicate problems to the right people FR-R11 Rapidly recognize production disruptions DP-R12 Process state feedback system DP-R11 Subsystem configuration to enable operator’s detection of disruptions FR-R13 Solve problems immediately DP-R13 Standard method to identify and eliminate root cause FR-R112 Identify disruptions when they occur FR-R111 Identify disruptions where they occur DP-R112 Increased operator’s sampling rate of equipment status DP-R111 Simplified material flow paths FR-R122 Supply descriptive info to support resources FR-R121 Identify correct support resources DP-R122 System that conveys nature of problem DP-R121 Specified support resources for each failure mode FR-R123 Minimize delay in contacting correct support resources DP-R123 Rapid information transfer system FR-R113 Identify nature of disruption DP-R113 Context sensitive feedback Identifying and Resolving Problems FR-Q1 Stabilize process DP-Q1 Elimination of assignable causes of variation FR-Q2 Determine capability of process (est. process parameters) DP-Q2 Measure current process FR-Q3 Improve capability of process DP-Q3 Design of experiments FR-Q11 Eliminate machine assignable causes DP-Q11 Selection/ maintenance of equipment FR-Q12 Eliminate operator assignable causes DP-Q12 Stable output from operators FR-Q122 Operator consistently performs tasks correctly DP-Q122 Standard work methods FR-Q121 Operator has knowledge of required tasks DP-Q121 Training program Quality FR-Q13 Eliminate method assignable causes DP-Q13 Process plan design FR-Q14 Eliminate material assignable causes DP-Q14 Supplier quality program FR-Q123 Ensure operator human errors do not translate to defects DP-Q123 Mistake proof operations (Poka-Yoke) DP-P1 Predictable production resources (people, equipment, info) FR-P1 Minimize production disruptions FR-P12 Ensure predictable equipment output FR-P11 Ensure availability of relevant production information FR-P14 Ensure material availability FR-P13 Ensure predictable worker output DP-P12 Maintenance of equipment reliability DP-P11 Capable and reliable information system DP-P14 Standard material replenishment system DP-P13 Motivated work- force performing standard work FR-P133 Do not interrupt production for worker allowances FR-P131 Reduce variability of task completion time DP-P133 Mutual Relief System with cross-trained workers DP-P131 Standard work methods to provide stabilized processing time Predictable Output FR-P132 Ensure availability of workers DP-P132 Perfect Attendance Program FR-D2 Eliminate wasted motion of operators FR-D1 Eliminate operators waiting on machines DP-D2 Design of workstations / work-loops to facilitate operator tasks DP-D1 Human- Machine separation FR-I1 Eliminate managerial tasks DP-I1 Self directed work teams (horizontal organization) FR-I2 Eliminate information disruptions DP-I2 Seamless information flow (visual factory) FR-D11 Reduce tasks that tie the operator to the machine / station DP-D11 Machines & stations designed to run autonomously FR-D12 Enable worker to operate more than one machine / station DP-D12 Train the workers to operate multiple stations FR-D21 Minimize wasted motion of operators between stations DP-D21 Configure machines / stations to reduce walking distance FR-D22 Minimize wasted motion in operators’ work preparation DP-D22 Standard tools / equipment located at each station (5S) FR-D23 Minimize wasted motion in operators’ work tasks DP-D23 Ergonomic interface between the worker, machine and fixture Indirect Labor Direct Labor DP- T3 Reduction of transportation lot size (single-piece flow) DP-T5 Subsystem design to avoid production interruptions FR-T53 Ensure that support resources (people/automatio n) don’t interfere with one another FR-T51 Ensure that support resources don’t interfere with production resources FR-T52 Ensure that production resources (people/automatio n) don’t interfere with one another FR-T3 Reduce lot delay FR-T5 Reduce systematic operational delays FR-T11 Knowledge of demanded product mix (part types and quantities) FR-T12 Ability to produce in sufficiently small run sizes FR-T1 Reduce run size delay DP-T1 Production of the desired mix and quantity during each demand interval DP-T11 Information flow from downstream customer DP-T12 Design quick changeover for material handling and equipment DP-T53 Ensure coordination and separation of support work patterns DP-T51 Subsystems and equipment configured to separate support and production access req’ts DP-T52 Ensure coordination and separation of production work patterns DP-T2 Production balanced according to takt time FR-T2 Reduce process delay (caused by r a > r s ) FR-T23 Ensure that part arrival rate is balanced with service rate (r a =r s ) FR-T22 Ensure that production rate is balanced with takt time (r s max = 1/t t min ) FR-T21 Define takt time(s) DP-T23 Arrival of parts at downstream operations according to pitch DP-T22 Subsystem enabled to meet the desired takt time (design and operation) FR-T221 Automatic cycle time  minimum takt time FR-T222 Manual cycle time  takt time DP-T223 Stagger production of parts with different cycle times FR-T223 Ensure level cycle time mix DP- T221 Design of appropriate automatic work content at each station DP- T222 Design of appropriate operator work content/loops DP-T21 Definition or grouping of customers to achieve takt times within an ideal range DP-T232 Parts moved to downstream operations according to pitch FR-T232 Ensure proper timing of part arrivals DP-T4 Material flow oriented layout design FR-T4 Reduce transportation delay Delay Reduction DP-T231 Standard work in process between sub- systems FR-T231 Ensure that parts are available FR1 Maximize long-term return on investment DP11 Production to maximize customer satisfaction FR113 Meet customer expected lead time FR112 Deliver products on time DP1 Manufacturing System Design FR11 Maximize sales revenue DP13 Investment based on a long term system strategy FR13 Minimize investment over production system lifecycle DP12 Elimination of non-value adding sources of cost FR12 Minimize production costs FR-111 Deliver no defects DP-111 Defect-free production processes DP112 Throughput time variation reduction  DP122 Reduction of indirect labor tasks DP121 Elimination of non-value adding manual tasks FR122 Reduce waste in indirect labor FR121 Reduce waste in direct labor DP123 Reduction of consumed floor space FR123 Minimize facilities cost DP113 Mean throughput time reduction PRODUCTION SYSTEM DESIGN DECOMPOSITION © MIT 2000 DATE/TIME 11 PAGE OF PAGES MSD Decomposition v5.0.ppt FILENAME 1/10/2016 9:37:15 PM Professor David S. Cochran 77 MASSACHUSETTS AVENUE, BUILDING CAMBRIDGE, MA PHONE: (617) FAX: (617) PSD Production System Design Laboratory Laboratory for Manufacturing and Productivity Massachusetts Institute of Technology Facilities cost LEGEND Characteristic relating to MRP II FR - Functional Requirement DP - Design Parameter