1.2. : * Define the decision variables: $x_ij = 1$ if job $j$ is scheduled on machine $i$, and $0$ otherwise. * Define the objective function: Minimize $\max_j (C_j - d_j)$, where $C_j$ is the completion time of job $j$ and $d_j$ is the due date of job $j$. * Define the constraints: + Each job can only be scheduled on one machine: $\sum_i x_ij = 1$ for all $j$. + Each machine can only process one job at a time: $\sum_j x_ij \leq 1$ for all $i$. + The completion time of job $j$ is the sum of the processing times of all jobs scheduled on the same machine: $C_j = \sum_i p_ij x_ij$.
3.3. : * A set of jobs, each with a processing time on each machine and a routing that specifies the order in which the machines must be visited. * Goal: Schedule the jobs on the machines to minimize the makespan. * Define the constraints: + Each job can
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This essay explores the core concepts of scheduling theory as presented in Michael L. Pinedo's authoritative text, Scheduling: Theory, Algorithms, and Systems
4.1. : * Jobs have random processing times. * Goal: Schedule the jobs on the machines to minimize the expected makespan.
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