
handle: 10919/73848 , 10945/38745
I describe a methodology for optimizing n Shewhart x-charts operating on parallel production lines in a factory. The goal is to maximize the factory-wide probability of detecting an out-of-control condition subject to a constraint on the expected number of false signals. I use non-linear programming to appropriately set the x-charts’ control limits incorporating information about the probability of each production line going out-of-control. Using this approach, factories can set their quality control systems to optimally detect out-of-control conditions. Given some distributional assumptions, I also present a one-dimensional optimization methodology that allows for the efficient optimization of very large factories.
Because the author was a US Government employee at the time of publication, the publisher does not hold the copyright.
Published version
industrial quality control||statistical process control||x-bar chart||quality engineering||quality technology
industrial quality control||statistical process control||x-bar chart||quality engineering||quality technology
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