For information and reference only – not to be submitted as your own work.
This logistics management assignment example shows how a 1,500-word logistics operations analysis can be built for a SETU Aviation Management or Emergency Services Management module. It follows the structure of the Logistics Management assignment brief for 2026/27, and it uses an illustrative organisation, not a real employer. If you want the marking strategy behind it, read our guide to the logistics operations analysis assignment.
All organisational details and figures below are illustrative. Your own submission should rest on your workplace, observation notes or interviews, and your own measured data.
Logistics management assignment example: illustrative context and scope
The organisation analysed here is a fictional regional airline with a maintenance base at Dublin Airport and two outstations. It flies a fleet of twelve turboprop aircraft. Logistics for this operator means three linked flows: aircraft spares and consumables, ground-support equipment, and inbound freight for the maintenance hangar.
The analysis concentrates on spares and consumables, because that is where inventory and transport decisions collide. A grounded aircraft costs far more than the part that grounded it.
1. Current logistics process map
The table below maps the current flow of a line-maintenance part, from the defect report to the part being fitted. The final column marks where delay or cost builds up.
| Step | Activity | Owner | Typical elapsed time (illustrative) | Pain point |
|---|---|---|---|---|
| 1 | Defect logged by the flight crew or line engineer | Line maintenance | Within 1 hour | Part number often confirmed by phone |
| 2 | Stores check of the Dublin shelf stock | Stores | 30 minutes | System count differs from physical count |
| 3 | Request raised to the supplier or pool provider | Procurement | 2–4 hours | Manual quotation for urgent items |
| 4 | Inbound air or road freight | Freight forwarder | 12–48 hours | Customs paperwork and cut-off times |
| 5 | Goods-in inspection and release documentation | Stores and quality | 2 hours | Certificate checks done on paper |
| 6 | Part delivered to the aircraft and fitted | Line maintenance | 1–3 hours | Outstation parts moved by taxi |
Two observations matter for the later analysis. First, the longest step is not transport itself but the wait before the request is raised. Second, the stock count mismatch at step 2 means procurement often orders parts that are already on a shelf elsewhere.
2. Best practice from the literature
Christopher (2022) frames logistics as the management of flows so that service is delivered at the lowest total cost, not the lowest cost per function. That argument matters here, because a cheap but slow freight choice raises aircraft-on-ground (AOG) cost. Rushton, Croucher and Baker (2022) add the practical detail on warehouse and transport design.
The table sets out the practices that the analysis uses as its benchmark.
| Area | Best practice | Source | Why it matters for an airline |
|---|---|---|---|
| Inventory | ABC and VED classification, so high-value and critical parts get tighter control | Silver, Pyke and Thomas (2017) | A cheap but vital part can ground a whole aircraft |
| Inventory | Economic order quantity (EOQ) and safety stock for consumables | Silver, Pyke and Thomas (2017) | Balances ordering cost against holding cost |
| Inventory | Planning systems that reflect maintenance schedules | Ghobbar and Friend (2004) | Scheduled checks make part demand predictable |
| Transport | Consolidation of routine consignments | Rushton, Croucher and Baker (2022) | Cuts the cost per kilogram on non-urgent freight |
| Transport | Scheduled milk runs to outstations | Rushton, Croucher and Baker (2022) | Replaces ad hoc taxi deliveries |
| Service | Defined expedite route for AOG events | Christopher (2022) | Time is the dominant cost driver |
A worked illustration shows how the inventory rules operate. Assume a consumable with annual demand of 1,200 units, an ordering cost of €60 per order and holding cost of €15 per unit per year (all illustrative). The EOQ is the square root of (2 × 1,200 × 60 ÷ 15), which is about 98 units. If demand variability during the replenishment lead time has a standard deviation of 12 units and the target service level is 95 per cent (z = 1.65), safety stock is roughly 20 units.
If your own brief needs a process map and a gap analysis built from your workplace data, our report writing help team can guide the structure.
3. Critical comparison of current practice with best practice
This is the section that carries the most marks, so it has to do more than list gaps. Each gap below is tied to evidence, a consequence and a cause.
| Gap | Evidence in the illustrative case | Consequence | Likely cause |
|---|---|---|---|
| No criticality classification | All parts reviewed on one quarterly cycle | Critical items stock out while slow movers sit on shelves | Stores follows a single reorder rule |
| Weak stock accuracy | Roughly one count in ten differs from the system (illustrative) | Duplicate orders and avoidable expedite fees | Cycle counting is irregular |
| Ad hoc outstation deliveries | Taxi used for most outstation parts | High cost per delivery, variable lead time | No fixed delivery schedule |
| Slow request step | Quotation process is manual for urgent items | Hours lost before freight even starts | No pre-agreed supplier terms |
A strong paragraph on the first gap would read as follows. The operator treats a consumable seal costing a few euro with the same review rhythm as a landing-gear component. Under a VED approach (Silver, Pyke and Thomas, 2017), the seal would be classed as vital despite its low value, and held at a higher service level. The current policy therefore protects cash but not availability, which is the wrong trade-off in a business where a grounded aircraft loses revenue every hour.
The critique should also recognise limits. Pooling and vendor-managed arrangements shift cost to a supplier, and the benefit depends on contract terms. Ghobbar and Friend (2004) show that planning systems perform differently under different demand patterns, so a method that suits scheduled-check parts will not suit random failures.
4. Recommendations
- Classify all stocked parts by value and criticality, and set service levels per class. Review class A and vital items monthly.
- Introduce weekly cycle counts for critical items to bring system and shelf into line.
- Agree standing terms with two pool or exchange suppliers, so that urgent requests need no new quotation.
- Replace taxi deliveries with a scheduled twice-weekly van run to both outstations, and keep taxi use for AOG only.
- Track three measures: AOG hours per quarter, stock accuracy and cost per delivery.
The extract would then close with a short evaluation of cost, risk and implementation order. Link each recommendation to the profit, customer service and cross-functional effects that the module outcomes name.
How this extract earns marks
| Criterion (brief weighting) | What the extract does |
|---|---|
| Process map (10) | Ordered table with owner, time and pain point at each step |
| Best practice from literature (30) | Benchmark table split into inventory and transport, each tied to a source |
| Critical comparison (40) | Gap table with evidence, consequence and cause, plus a worked paragraph and stated limits |
| Recommendations (10) | Five numbered, measurable actions in priority order |
| Structure and referencing (10) | Clear headings that mirror the brief, Harvard in-text citations and a matching list |
Need a similar structure for a different module? See our operations and supply chain management sample for a related approach, or ask our business management assignment help team for guidance on your own brief.
The service provides model answers and guidance; how you use them, and your institution’s rules, remain your responsibility. If your deadline is close, share your brief and ask about help.
About the expert
This topic area sits closest to the business expertise of Aoife Brennan, who holds a Masters in Business Administration from Trinity College Dublin and has 2,496 completed orders on Ireland Assignment Help.
References
Christopher, M. (2022) Logistics and Supply Chain Management. 6th edn. Harlow: Pearson Education.
Ghobbar, A.A. and Friend, C.H. (2004) ‘The material requirements planning system for aircraft maintenance and inventory control: a note’, Journal of Air Transport Management, 10(3), pp. 217–221. doi:10.1016/j.jairtraman.2003.10.001.
Rushton, A., Croucher, P. and Baker, P. (2022) The Handbook of Logistics and Distribution Management: Understanding the Supply Chain. 7th edn. London: Kogan Page.
Silver, E.A., Pyke, D.F. and Thomas, D.J. (2017) Inventory and Production Management in Supply Chains. 4th edn. Boca Raton: CRC Press.
