MSc Industrial Engineering and Management | Course introduction
Read the warehouse, test interventions, and explain the trade-offs
Course structure, learning sequence, assignments, assessment, and guest lectures.
Trace the mission, flows, workload, service, and constraints.
Connect network, storage, layout, picking, and automation decisions.
Compare storage, layout, and picking interventions with reproducible evidence.
The course follows one question: How do activity, storage, layout, and picking decisions affect performance in a real warehouse?
Guest: 9 Sep | Guest replacing Monday: 12 Oct | Exam: 26 Oct, 13:45-16:45
Build the week's decision map and work through selected evidence.
Complete the guided slide trail and prepare the next assignment milestone.
Resolve assumptions, test the model, and connect it to practice.
Lecture → self-study → application → next assignment milestone
Teams of two build one evidence chain. Each milestone has its own 10-point rubric, applied to the final management report.
Establish the operational baseline from the real warehouse data.
Represent the operation and design the product-assignment intervention.
Structure and evaluate a feasible layout intervention in the real warehouse.
Design and evaluate picking interventions in the real warehouse.
Compare the interventions and formulate the management implications.
Five concise parts, each assessed with its own 10-point rubric.
One documented execution path reproduces the submitted results.
Explain and defend the complete report, assumptions, results, and code.
Point allocation: five milestone rubrics × 10 points = 50 coursework points. The oral defence verifies individual ownership; it is not a sixth point-bearing rubric.
Changing one design area can change the performance of the others.
Five rubrics × 10 points
Final report + codeClosed-book multiple-choice exam
50 raw pointsAssignments and final exam
50 coursework pointsWhich statement about order picking is correct?
Correct answer: A. Zoning applies to picker-to-parts and parts-to-picker systems. Batch picking combines customer orders, not necessarily one SKU. In wave picking, orders for a common destination “are released simultaneously for picking in multiple warehouse areas” (De Koster et al. 2007, 484).
Order set I: SKU 1, \(N\) times
Order set II: SKUs 2, 3, and 4, \(N+1\) times
Using shortest-path round trips and one pallet retrieval per cycle, what is the total travel distance?
Correct answer: A. A single-command cycle returns to the I/O point after each SKU retrieval.
| SKU | Location | Round trip (distance units) | Contribution (distance units) |
|---|---|---|---|
| 1 | C · at I/O | 0 | \(0N\) |
| 2 | A | 2 | \(2(N+1)\) |
| 3 | B | 4 | \(4(N+1)\) |
| 4 | D | 2 | \(2(N+1)\) |
\[ 0N + 2(N+1) + 4(N+1) + 2(N+1) = \boxed{8(N+1)\text{ distance units}} \]
Operational interpretation. The southwest SKU creates no travel because it is stored at the I/O point. The northeast SKU creates the longest round trip. Option C, \(4(N+1)\), would treat SKUs 2–4 as one multi-command tour and violates the stated policy.
Stijn Huuskes
Bolk Business Improvement
Jan van Eldik and Fenne Peeters
Toyota and Vanderlande
Listen for the decision, the constraint, and the evidence used to justify the solution.
Warehousing - M-IEM - Breno A. Beirigo