Supply Chain Management
10 sessions spanning strategic fit, demand coordination, production planning, global sourcing, and resilience — built around 7 landmark case studies from Apple to Pertamina.
Session Map
All 10 SessionsSCM Fundamentals
SC Surplus, push/pull views, macro processes, decision levels.
Strategic Fit & Apple
Efficiency vs. responsiveness, implied uncertainty, Apple case.
The Bullwhip Effect
Demand distortion, Barilla JITD, VMI, bullwhip simulator.
Seven-Eleven Japan
Demand-driven replenishment, centralized DC, info cadence.
Production Planning
Newsvendor model, push/pull, Sport Obermeyer, risk pooling.
Reverse Logistics
Zappos WOW model, Amazon returns, customer-centric SC design.
Global Sourcing
TCO, tailored sourcing, buyback contracts, LEGO-Flextronics.
Industry Speaker
Live session at IE Tower — frameworks in executive practice.
Triple-A Supply Chain
Agility, Adaptability, Alignment — Lee framework, SC risk.
Pertamina — Group Project
Resilient SC in fuel logistics across 17,000+ islands.
How to Use This Guide
Click any session card above to jump directly to that session, or use the sidebar to navigate. Within each session, click accordion rows to expand content. Use Expand All for a full read-through before an exam.
SCM Fundamentals
Supply chain surplus, push/pull views, macro processes, and the strategic role of SCM in firm performance.
Definition
A supply chain encompasses all parties involved — directly or indirectly — in fulfilling a customer request. This includes manufacturers, suppliers, transporters, warehouses, retailers, and ultimately the customer.
Supply chains manage three key flows simultaneously:
- Product flow: Materials and goods moving downstream from suppliers to customers.
- Information flow: Demand signals, orders, forecasts moving upstream from customers to suppliers.
- Financial flow: Payments, credit terms, invoicing across the chain.
Cycle View
Supply chain processes are divided into cycles, each at the interface between two consecutive stages. The four standard cycles are:
| Cycle | Interface | Triggered by |
|---|---|---|
| Customer Order Cycle | Retailer ↔ Customer | Customer placing an order |
| Replenishment Cycle | Distributor ↔ Retailer | Retailer stock falling below reorder point |
| Manufacturing Cycle | Manufacturer ↔ Distributor | Distributor/retailer orders |
| Procurement Cycle | Supplier ↔ Manufacturer | Manufacturing schedule |
Push / Pull View
The push/pull boundary divides speculative activity from reactive activity:
- Pull processes are initiated by an actual customer order — reactive, Build-to-Order. Example: Dell building a laptop to a specific customer configuration.
- Push processes are executed in anticipation of future demand — speculative, Make-to-Stock. Example: Zara producing a collection before knowing actual store sales.
Every firm in a supply chain participates in three macro-level process groups that must be tightly integrated:
| Macro Process | Interface | Key Activities |
|---|---|---|
| SRM — Supplier Relationship Management | Firm ↔ Suppliers | Source, Negotiate, Buy, Design Collaboration, Supply Collaboration |
| ISCM — Internal Supply Chain Management | Internal to the Firm | Strategic Planning, Demand Planning, Supply Planning, Fulfilment, Field Service |
| CRM — Customer Relationship Management | Firm ↔ Customers | Market, Price, Sell, Call Center, Order Management |
The SCOR model extends this into six operational pillars: Plan, Source, Make, Deliver, Return, Enable — providing a cross-industry standard language for supply chain benchmarking and management.
Supply chain decisions operate at three distinct time horizons:
| Level | Horizon | Examples | Constrained by |
|---|---|---|---|
| Strategic | Multi-year | Factory location, outsourcing, SC network design, IT platform | Owned assets and capabilities |
| Planning | Quarterly / Annual | Production plan, workforce sizing, subcontractor decisions, promotions | Strategic decisions |
| Operational | Daily / Weekly | Specific customer orders, replenishment timing, routing, scheduling | Planning decisions |
Marshall Fisher (Harvard Business Review, 1997) provides the foundational framework for matching supply chain design to product characteristics. The key insight: not all products need the same supply chain.
Two Product Types
| Attribute | Functional Products | Innovative Products |
|---|---|---|
| Demand | Stable, predictable | Uncertain, volatile |
| Product life cycle | Long (2+ years) | Short (months) |
| Variety | Low | High |
| Margin | Low | High |
| Stockout cost | Low | High |
| Examples | Salt, basic pasta, nappies | Fashion apparel, new smartphones |
Two Supply Chain Types
| Attribute | Efficient SC | Responsive SC |
|---|---|---|
| Primary goal | Minimise physical cost | Minimise market mediation cost |
| Inventory | Low, high turns | Buffer stock, flexible |
| Lead time | Long acceptable | Short, prioritised |
| Capacity | High utilisation | Excess / flexible capacity |
| SC partner selection | Cost, quality | Speed, flexibility |
Strategic Fit & Apple
Efficiency vs. responsiveness trade-offs, implied demand uncertainty, and Apple's supply chain transformation.
Strategic fit is the alignment between a company's competitive strategy and its supply chain strategy. Both must target the same goal — one consistent with customer needs.
- Competitive strategy: What customer needs does the company serve? (price, speed, variety, reliability, quality)
- Supply chain strategy: What capabilities does the supply chain build? (efficiency, flexibility, responsiveness)
Demand uncertainty is shaped by: range of quantity required, lead time demanded, variety of products needed, required service level, rate of innovation, and acceptable price point.
Implied demand uncertainty is not raw demand variability — it is the uncertainty your supply chain must absorb, after accounting for your product type and customer service commitments.
Factors that increase implied uncertainty:
- A wider range of quantities required (high/low demand peaks)
- Shorter lead times demanded by customers
- Greater product variety and SKU proliferation
- Higher required service levels (fill rates, availability)
- High rate of product innovation (short life cycles)
Functional + Responsive = Mismatch ✗ (wasteful excess cost) | Innovative + Efficient = Mismatch ✗ (stockouts & markdowns)
The Strategic Challenge
Apple competes on premium innovation — highly innovative products with uncertain demand and high margins. This demands a responsive supply chain. Yet Apple also needs to produce at extraordinary scale (hundreds of millions of units), which demands elements of efficiency. The case shows how Apple balances this tension.
Key Strategic Moves
- Foxconn partnership (2001/2005): Apple offshored assembly to China, leveraging scale and skilled labour. "iPhone City" in Zhengzhou cost $10B+ and could produce 500K+ iPhones/day.
- Vertical integration in chips: Acquiring P.A. Semi in 2008 allowed Apple to design its own A-series processors (A4 chip, 2010), reducing dependence on Samsung and Qualcomm.
- TSMC partnership: Taiwan Semiconductor supplies Apple's chips — a critical, highly managed supplier relationship.
- Supplier funding: Apple pre-pays or part-funds supplier equipment, securing capacity and locking in supply — converting suppliers into dedicated partners.
Geopolitical Risk — The China Dependency
Between 2015 and 2019, Apple's China supplier share grew from 44% to 47%. This concentration poses significant risk. Post-COVID, Apple began diversifying toward India (8 new supplier locations) — a strategic supply chain adaptation in response to changing geopolitical realities.
Scope of Strategic Fit
Strategic fit cannot be achieved at the product level alone. As product portfolios grow and customer segments diversify, the scope expands:
- Intra-company fit: All functions (marketing, operations, finance) must support the same SC strategy.
- Inter-company fit: All supply chain stages (suppliers, manufacturers, distributors, retailers) must be aligned.
- Tailored supply chains: Different product lines or customer segments may require different supply chains from the same firm (e.g., Apple's direct online channel vs. retail partners).
Common Exam Traps
The Bullwhip Effect
Demand signal distortion, its five causes, Barilla's JITD program, and interactive variance amplification.
The bullwhip effect describes the phenomenon where small fluctuations in customer demand become increasingly amplified as orders move upstream through the supply chain — from retailer to wholesaler to distributor to manufacturer.
The consequences for manufacturers include: factories running overtime at some periods and idle at others, huge safety stock requirements, premium freight costs, excess markdowns, and reduced customer service levels — all generated by demand variability that does not reflect actual consumer behaviour.
Lee, Padmanabhan & Whang (1997) identified four root causes. Each is a consequence of rational decision-making within an imperfect information structure:
1. Demand Forecast Updating
Each upstream stage uses the orders it receives as its primary demand signal, then adds safety stock to cover uncertainty and lead time. Each layer of exponential smoothing amplifies the variance. With longer lead times, safety stock requirements explode.
2. Order Batching
To reduce fixed ordering costs and fill truckloads efficiently, companies order in large batches periodically (e.g., once a week or month). This creates large spikes followed by zero orders, which upstream stages cannot distinguish from true demand swings.
3. Price Fluctuation (Trade Promotions)
When manufacturers offer periodic promotions or quantity discounts, buyers rationally forward-buy — stocking up far beyond current needs. This creates artificial demand peaks followed by deep valleys. P&G found this was "the dumbest marketing ploy ever."
4. Rationing and Shortage Gaming
When supply falls short, manufacturers often allocate in proportion to orders placed. Knowing this, buyers over-order to ensure they receive enough. When the shortage ends, orders vanish instantly. HP's LaserJet III rationing caused phantom orders and millions in excess inventory.
Lee et al. (1997) organise mitigation strategies around three mechanisms:
| Cause | Information Sharing | Channel Alignment | Operational Efficiency |
|---|---|---|---|
| Demand Forecast Update | POS data sharing, EDI, Internet | VMI, Consumer Direct | Lead-time reduction, echelon inventory control |
| Order Batching | EDI, internet ordering | Truckload discounts, delivery appointments | Reduce fixed ordering costs, logistics outsourcing |
| Price Fluctuation | Continuous Replenishment (CRP) | EDLP, Everyday Low Cost | Activity-Based Costing (ABC) |
| Shortage Gaming | Share capacity & inventory data | Allocate by past sales (not current orders) | Advance ordering, cancellation penalties |
VMI (Vendor Managed Inventory): Supplier takes full responsibility for inventory decisions at the retailer. Ultimate information-sharing solution. Eliminates the bullwhip loop entirely by removing the "game of telephone."
Company Background
Barilla SpA, the world's largest pasta producer, operated 800+ dry product SKUs across a complex Italian distribution network: two Central Distribution Centers (CDCs) supplying Grand Distributors (GDs) and Organised Distributors (DOs), who in turn supplied 100,000 retail outlets.
The Problem
Weekly orders from the Cortese Northeast DC showed extreme variability: mean of 300 quintals, standard deviation of 227 quintals — a coefficient of variation of 76%. Actual consumer demand was essentially flat. The variability was entirely generated within the supply chain through promotions, batching, and information distortion.
Brando Vitali's JITD Proposal
Just-in-Time Distribution: instead of delivering based on whatever distributors order, Barilla would determine the "appropriate" delivery quantities itself — based on downstream data — to better meet consumer needs and smooth Barilla's manufacturing load. Essentially VMI before VMI had a name.
Why It Failed (Initially)
Significant resistance on both sides:
- Distributors: "Managing stock is my job." Fear of losing autonomy. Concern about giving Barilla power to push product into warehouses.
- Barilla's own sales team: Feared losing promotional flexibility. Worried about losing distributor shelf space if inventory decreased. Doubted cost savings.
Seven-Eleven Japan
Demand-driven replenishment, centralized distribution, information visibility, and agility in convenience retail.
Seven-Eleven Japan (SEJ) was founded in 1974 and became the world's largest convenience retail chain, with over 21,000 stores in Japan by 2021. Its core model is built around high-frequency, small-lot replenishment driven entirely by real-time demand data — the opposite of bulk, forecast-driven restocking.
The business proposition: convenience over price. SEJ stores are intentionally small (close-by) and stocked based on hyper-local demand patterns — age, gender, time-of-day, weather. When Japan's ageing population grew, SEJ added the Seven-Meal home-delivery service and expanded ready-meal lines accordingly.
New products are trialed for just 3 weeks: if a product does not contribute to sales and margin within that window, it is delisted. This rapid SKU rotation requires a supply chain that can onboard, track, and exit products at speed.
The fundamental supply chain architecture question for multi-site retailers: should each store manage its own orders, or should a central system (or DC) control replenishment?
| Dimension | Decentralized (store-managed) | Centralized (SEJ model) |
|---|---|---|
| Who orders? | Each store independently | HQ / DC coordinates based on POS data |
| Demand signal | Store manager's intuition | Real-time POS + demographic data |
| Inventory held at DC? | Yes — buffer stock needed | No — DCs are cross-docking hubs only |
| Supplier coordination | Many bilateral relationships | Combined delivery system — one truck per category |
| Responsiveness | Low — order cycles lag demand | High — 3 deliveries/day for fresh food |
| Risk | Higher bullwhip exposure | Reduced variance through info sharing |
SEJ operates separate supply chains by temperature: frozen (3–7x/week), chilled and warm foods (3x/day), room-temperature (1x/day). This granularity is only possible because centralized data allows precise planning across the whole network.
SEJ's Total Information System, launched in 1979 and upgraded continuously, is the operational backbone. It links every store with HQ, suppliers, and distribution centres in real time.
SEJ information and physical flow — data captured at store POS each night, analysed at HQ, orders transmitted to suppliers and DCs by morning for same-day delivery.
Store hardware includes a graphic order terminal (handheld, used by store manager to place orders using POS analytics), a POS register (captures age/gender of buyer), a store computer, and a scanner terminal (reconciles deliveries without truck driver waiting). Each piece eliminates friction and compresses the order-to-shelf cycle.
The 1995 Kobe earthquake is the canonical example of SEJ's agility. When the earthquake struck, road infrastructure collapsed and normal distribution routes became impassable.
This was possible because of three pre-existing capabilities:
- Real-time demand visibility — HQ could see exactly which stores were operational and what they needed
- Supplier relationships and trust — SEJ's aligned partner network could be activated without lengthy contract renegotiation
- Backup logistics planning — alternative transport modes (helicopter, motorcycle) were pre-arranged, not improvised
This episode is directly cited in Hau Lee's Triple-A Supply Chain article as the benchmark example of Agility in action — the ability to respond to sudden, short-term disruptions without losing momentum.
SEJ is the case study that best illustrates all three pillars of Lee's Triple-A framework simultaneously:
| Triple-A Pillar | SEJ Practice | Mechanism |
|---|---|---|
| Agility | Kobe earthquake response | Helicopters + motorcycles deployed within 6 hours; real-time info enabled rapid rerouting |
| Agility | 3x daily fresh food delivery | POS data allows same-day demand response; shelf reconfiguration 3 times daily |
| Adaptability | Demographics-led product evolution | Shifted to 900 high-daily-consumption SKUs as working women grew; added Seven-Meal for elderly |
| Adaptability | US market entry via CDCs | Replicated combined DC model; introduced fresh food to compete with Starbucks |
| Alignment | Carrier penalty system | Late trucks pay a penalty — incentive aligned to SEJ's on-time delivery requirement |
| Alignment | No verification on delivery | Trusting partners saves time; store clerks reconcile at low-traffic periods instead |
Production Planning Under Uncertainty
Push vs. pull logic, the newsvendor model, and how Sport Obermeyer balances efficiency with demand uncertainty.
The fundamental operating logic of any supply chain is determined by where the push/pull boundary sits relative to the customer order point.
| Dimension | Push (Speculative) | Pull (Reactive) |
|---|---|---|
| Trigger | Forecast / anticipation of demand | Actual customer order received |
| Timing | Before demand is known | After demand is known |
| Risk | Over/under-production from forecast error | Lead time risk — customer may not wait |
| Inventory | High — buffer stock needed | Low — produce to order |
| Complexity | Low operational; high planning | High operational; low planning |
| Obermeyer example | Phase I: Nov–Feb production on forecast | Phase II: post-Las Vegas show orders |
The Newsvendor Model solves a classic single-period inventory problem: how much to order when demand is uncertain and unsold units cannot be carried over (perishables, fashion, newspapers).
Co = Overage cost = c − s (loss per unit of excess inventory, salvaged at s)
CR = Critical Ratio = Cu / (Cu + Co)
Order quantity Q* such that: P(Demand ≤ Q*) = CR
i.e. set Q at the CR-th percentile of the demand distribution
Where: p = selling price, c = unit cost, s = salvage value.
Obermeyer application: At a wholesale price of $112.50, profit margin is ~24% ($27/unit) and liquidation loss is ~8% ($9/unit). So Cu = $27, Co = $9, CR = 27/(27+9) = 0.75 — meaning Obermeyer should produce enough to satisfy 75% of demand scenarios, erring on the side of availability.
Demand distribution for a fashion item. Q* is set at the 75th percentile (CR = 0.75), meaning the firm accepts a 25% chance of overage to avoid the higher cost of stockout in 75% of demand scenarios.
When demand uncertainty is high (wide bell curve), the stakes of the Newsvendor decision are much larger — small errors in Q* lead to large cost penalties. This is exactly Obermeyer's challenge: styles like Anita (SD = 1,047) vs. Gail (SD = 194) have completely different risk profiles requiring different production strategies.
Sport Obermeyer is a premium skiwear manufacturer based in Aspen, Colorado, facing the classic "fashion gamble": production decisions must be made 12–18 months before the selling season with minimal market information.
The Buying Committee model: Six managers independently forecast demand for each style. The standard deviation of these forecasts, multiplied by 2, estimates actual market demand variance. High committee disagreement = high market risk = defer to reactive phase.
| Style archetype | Committee SD | Market SD (2x) | Strategy |
|---|---|---|---|
| Gail (low-risk staple) | 97 | 194 | Phase I Speculative — push early |
| Isis (low-risk) | 161 | 323 | Phase I Speculative |
| Stephanie (high-risk) | 262 | 524 | Phase II Reactive — wait for show |
| Anita (highest risk) | 524 | 1,047 | Phase II Reactive — defer completely |
Two-phase production logic:
- Phase I (Speculative, Nov–Feb): Commit 10,000 units to high-consensus, low-variance styles. Use China (low cost, high MOQ) for these stable volumes.
- Phase II (Reactive, post-Las Vegas show): Use early order data (first 20% of season orders) to update forecasts dramatically. Reserve Hong Kong capacity (low MOQ = 600 units, 1–2% repair rate) for late, precise runs on the "hits."
Risk pooling is the statistical principle that aggregating independent demand streams reduces relative variability. It is one of the most powerful tools in supply chain design.
σ_pooled = σ × √(n + n(n−1)ρ)
When ρ = 0 (independent): σ_pooled = σ√n
Coefficient of variation = σ/μ falls as n grows → less relative uncertainty
This is why centralised inventory outperforms decentralised inventory for uncertain products. By pooling demand across locations, the total safety stock needed falls — even while total demand stays the same.
Product redesign as risk pooling: Obermeyer reduced zipper variety fivefold by using black zippers as a design element across multiple lines. This meant one common component (pooled) serves many end products — reducing both procurement risk and inventory cost.
Customer-Centric SC & Reverse Logistics
How Zappos built a WOW supply chain around customer experience, and Amazon's strategic response to its returns problem.
Zappos was founded in 1999 with one radical idea: sell shoes online. By 2008 it was approaching $1 billion in gross sales — not by being the cheapest, but by delivering a service experience so exceptional it became a competitive moat. The phrase "Deliver WOW Through Service" is Zappos Core Value #1.
The supply chain evolution:
| Stage | Model | Problem | Response |
|---|---|---|---|
| Stage 1 | Drop-ship only | No control over fulfilment; customer satisfaction lower than warehouse orders | Cut drop-ship; bring all inventory in-house |
| Stage 2 | 3PL (UPS, Kentucky) | UPS facility could not handle 80,000+ SKU density of footwear | Built proprietary distribution centre in Shepherdsville, KY |
| Stage 3 | In-house DC | Manual shelving was slow and unscalable | Adopted random stocking + Kiva robotic systems (2x efficiency gain) |
Random stocking: Items are placed in any available bin (not by brand or category). This eliminates picking bottlenecks — workers always find nearby inventory — and ensures 100% accuracy: if an item shows online, it is physically available. When the last unit of a style/colour/size is sold, it disappears from the website immediately.
Call centre as competitive weapon: Phone number prominent on every web page. Calls answered in under 20 seconds. Operators empowered to direct customers to competitors if Zappos is out of stock. This is alignment in action — the supply chain serves the customer relationship, not the other way around.
Reverse logistics covers all flows of products moving backwards through the supply chain — from customer back to manufacturer, refurbisher, or recycler. In e-commerce, return rates of 20–35% are common; ignoring this flow is not an option.
| Recovery option | Description | Value recovered |
|---|---|---|
| Re-stocking | Item returned in sellable condition, goes back to forward chain | Full retail value |
| Refurbishing | Item needs cleaning/repair before resale | Partial — minus refurb cost |
| Part recovery | Components extracted and reused in production | Material value only |
| Scrapping / Recycling | Product has no resale value; materials recovered | Minimal — raw material price |
Why reverse logistics is hard:
- Returns are difficult to forecast — timing, volume, and condition are all uncertain
- Flows are less visible in accounting systems — costs are diffuse and hard to attribute
- Reverse flows are low volume, high variety — the opposite of what forward supply chains are optimised for
- Requires separate processes and facilities — cannot simply run the forward chain in reverse
Amazon's easy returns policy — free returns at 18,000 drop-off locations, no box or label required at Kohl's and UPS — set a new industry baseline. But the resulting flood of returned goods created an enormous operational and sustainability challenge.
The returns problem: Easy returns drive purchase volume (good) but create massive reverse logistics complexity (costly). Returned items must be inspected, sorted, re-stocked, liquidated, or destroyed — each at different costs. Amazon faced a sustainability crisis: millions of returned items were reportedly being landfilled because processing costs exceeded resale value.
Amazon's strategic responses:
- Returnless refunds — for low-value items, Amazon issues a refund without requesting the item back. Processing cost exceeds item value.
- Grading and resale channels — returned goods graded and sold via Amazon Warehouse (like-new) or Amazon Liquidations (bulk lots to resellers)
- Recommerce partnerships — working with third parties to refurbish and resell electronics and apparel
- Reducing returns at source — better product photos, fit prediction tools (AR try-on), detailed sizing guides to reduce fit-related returns
Industry effect: Amazon's standard forced Walmart, Target, and traditional retailers to match easy-return policies — raising the entire industry's reverse logistics cost base. This is an example of how one supply chain decision by a market leader reshapes competitive dynamics industry-wide.
Session 6 brings together two themes that are increasingly inseparable: customer-centricity (designing the supply chain around the customer experience) and sustainability (designing it around long-term environmental and social responsibility).
Customer-centric SC design principles (from Zappos):
- Remove friction from the customer journey — free shipping, free returns, 24/7 phone support
- Invest in the "trust loop" — policies that make customers comfortable buying = higher LTV
- Define yourself by service, not product — the supply chain is the brand
- Empower frontline staff to resolve issues without escalation — decentralised decision rights
Sustainability dimensions in reverse logistics:
| Flow type | Sustainability lever | Business case |
|---|---|---|
| Product returns | Refurbish > landfill; returnless refunds reduce transport emissions | Reduces disposal cost; regulatory pressure growing |
| End-of-life take-back | Extended Producer Responsibility (EPR) programmes | Brand differentiation; EU mandatory for electronics |
| Packaging | Right-size packaging; eliminate void fill | Reduces cost per shipment; consumer expectation |
| Remanufacturing | Caterpillar, HP — rebuild products to as-new spec | Margin on remanufactured = margin on new, at 40–60% less cost |
Global Sourcing & Outsourcing
Total Cost of Ownership, tailored sourcing, risk-sharing contracts, and the LEGO-Flextronics outsourcing failure.
Companies outsource to increase Supply Chain Surplus by leveraging a third party's scale, specialisation, or lower cost base. The decision should always be evaluated against the full strategic picture — not just unit cost.
Why companies outsource:
- Access to specialised capabilities or assets not worth building in-house
- Convert fixed costs to variable costs (flex capacity with demand)
- Focus internal resources on core competencies
- Exploit third-party economies of scale
- Broken processes: Outsourcing a broken process doesn't fix it — it exports the dysfunction
- Loss of domain knowledge: Skills and expertise erode when activities leave the firm; re-insourcing becomes costly
- Lack of exit strategy: Becoming dependent on a single supplier with no viable alternative is a strategic trap
TCO is the most important concept in sourcing decisions. It forces managers to look beyond the quoted unit price to the total cost of bringing a product into the supply chain and through its lifecycle.
Ownership Costs — Inventory holding, warehousing, quality defects, manufacturing impact (e.g. repair rates)
Post-Ownership — Warranty, recall risk, environmental disposal, reputational damage
| Cost Category | Offshore (China example) | Nearshore (Mexico example) |
|---|---|---|
| Unit price | Low ✅ | Higher ❌ |
| Tariffs & duties | High (cross-border) | Lower (USMCA/FTA) |
| Lead time cost | High — 12+ week transit locks inventory | Days — minimal in-transit stock |
| Quality/repair | ~10% repair rate adds rework cost | Typically lower |
| Responsiveness | Cannot react to demand shifts | Can stop/start SKUs fast |
| Post-ownership | Harder to enforce standards | Closer oversight possible |
Tailored sourcing means matching the sourcing location to the demand characteristics of each product — not applying a single global sourcing strategy to everything.
| Product type | Demand profile | Right sourcing | Why |
|---|---|---|---|
| Functional / staple | Low volatility, high volume, predictable | Offshore (China, Vietnam) | Scale economies dominate; long lead times acceptable |
| Innovative / fashion | High volatility, uncertain, short lifecycle | Nearshore / Onshore | Responsiveness critical; TCO of overage/underage exceeds wage savings |
| High-innovation tech | Rapid change, IP-sensitive | Onshore or trusted near partner | Protect domain knowledge; need tight coordination |
Tailored sourcing is the strategic bridge between Session 5 (push/pull, newsvendor) and Session 7 (global procurement). The critical ratio tells you how much to order; tailored sourcing tells you from where to order it.
Standard wholesale contracts create misaligned incentives: the retailer bears all demand risk, so orders conservatively; the manufacturer loses revenue from understocking. Risk-sharing contracts redistribute risk to unlock higher order quantities and joint profit.
| Contract type | Mechanism | Retailer benefit | Manufacturer benefit | Exam signal |
|---|---|---|---|---|
| Wholesale | Fixed price per unit, retailer owns unsold stock | Simple, predictable cost | No downstream risk | Baseline — often suboptimal for both |
| Buyback | Manufacturer agrees to buy back unsold units at price b | Reduced overage risk → orders more | Higher order quantity boosts revenue | Used when retailer has high overage cost |
| Revenue Sharing | Lower wholesale price, retailer shares % of revenue | Lower upfront cost, can order more | Participates in retailer's upside | Used when demand uncertainty is high; Blockbuster/studios example |
| Quantity Flexibility | Retailer can adjust order quantity within range after observing demand | Postpones commitment, reduces forecast risk | Capacity certainty within range | Used when early demand signals are valuable |
Co_buyback = c − b (c = wholesale price, b = buyback price)
Lower Co_buyback → higher Critical Ratio → retailer orders more → both parties gain
The LEGO case is the definitive study in strategic misalignment in outsourcing. Between 1993 and 2004, LEGO's component complexity exploded — from an unknown number of parts to 3,560 unique shapes, 157 colours, and 10,900 total elements. Fill rates to retailers collapsed from disciplined levels to 5–70% variability. The company had an "operations nightmare."
Why Flextronics failed LEGO:
| Dimension | LEGO requirement | Flextronics reality | Outcome |
|---|---|---|---|
| Mould precision | 0.002mm tolerance, high-durability moulds | Experience in high-volume, low-complexity consumer electronics parts | Mould lifespan shortened; quality fell |
| Factory model | Integrated, coordinated production | Decentralised factories as independent profit centres | Inconsistent standards, higher localised costs |
| Procurement | Bulk standardised packaging (just change the print) | Separate box purchase per SKU | Packaging costs rose instead of falling |
| Automation | 64 machines per 2–3 people (Denmark) | 2–3 people per machine (China) | Labour-intensive, unscalable |
| Lead time | Ability to "push or stop" a SKU within days | 12-week lead times from Asia | Zero responsiveness to demand signals |
Industry Speaker
Live in-person session at IE Tower — connecting academic frameworks with executive practice through an invited industry leader.
No study content for this session. This is a live interactive session with an invited supply chain executive at the IE Tower. Speaker details will be confirmed at the start of the course.
Triple-A Supply Chain
Agility, Adaptability, and Alignment — Lee's framework for sustainable competitive advantage and supply chain resilience.
Hau L. Lee's 2004 HBR article argued that the prevailing obsession with supply chain speed and cost was not only insufficient — it was actively creating fragile supply chains that failed precisely when they were needed most.
The reason: efficiency-optimised supply chains are designed for steady-state conditions. They are optimised for the average demand scenario, not for volatility, disruptions, or structural market shifts. The moment reality deviates from the plan — a demand spike, a supplier failure, a geopolitical shock — a lean chain has no slack to absorb it.
Importantly, the three As are not substitutes — a supply chain needs all three. Agility without Alignment means partners react at cross-purposes. Adaptability without Agility means the firm evolves structurally but cannot respond to short-term shocks. Alignment without Adaptability means partners collaborate within a structure that becomes obsolete.
Agility is the ability to respond quickly to short-term, unexpected changes in supply or demand — and to recover from disruptions before competitors can capitalise.
| Agility practice | How it works | Example |
|---|---|---|
| Real-time demand visibility | Share POS and inventory data with all chain partners continuously | SEJ's Total Information System — daily POS to HQ by 11pm |
| Flexible production systems | Modular lines that can switch SKUs quickly; SMED techniques | HP's universal power supplies, designed to work globally |
| Buffer capacity / inventory | Strategic safety stock of inexpensive, non-bulky components | Stock common fasteners, not finished goods |
| Postponement | Finalise product only when accurate demand info is available | Benetton: dye garments after orders received (not before) |
| Fast information flow | Remove lag from demand signal to production decision | Zara: store-to-design team feedback loop in days |
| Reliable logistics partners | Pre-arrange backup transport modes for disruptions | SEJ: helicopters + motorcycles during Kobe earthquake |
Adaptability is the strategic capacity to evolve the supply chain's fundamental design as markets, technologies, and geopolitics shift permanently. Unlike agility (reacting to noise), adaptability addresses long-term signals.
Structural failures from inertia: Lucent kept its manufacturing hub in Oklahoma City while the market moved to Asia. Components shipped from Asia to the US for assembly, then shipped back to Asian customers — "frequent-flyer" components adding cost and time. More adaptable rivals used contract manufacturers in Asia to undercut Lucent's prices.
Adaptability practices:
- Monitor global trends continuously — track economic development, political shifts, demographic change, technology cycles
- Design for supply flexibility: Commonality (shared components across product lines), Postponement (standardise early stages), Standardisation (allows switching between supply networks)
- Strategic segmentation: Run different supply chains for different product lines as markets diverge
- Use intermediaries to access reliable vendors in unfamiliar markets without building a permanent presence
Alignment is the synchronisation of incentives across all supply chain partners so that when each player maximises its own interests, it also optimises the chain's overall performance. Misaligned incentives are the root cause of most coordination failures — including the Bullwhip Effect.
Alignment practices:
- Equal access to information: Provide all partners with the same forecasts, sales data, and plans — no information asymmetry
- Clarify roles and responsibilities: Avoid conflict from ambiguous boundaries
- Redefine partnership terms: Share risks, costs, and rewards equitably — this is where risk-sharing contracts (Session 7) connect
- Align incentives explicitly: Metrics and rewards must reflect chain performance, not just individual firm performance
| Alignment mechanism | Example | Effect |
|---|---|---|
| Penalty for late delivery | SEJ: carriers pay penalty if truck is 30+ min late | Carrier's incentive aligned with SEJ's on-time requirement |
| No-verification trust | SEJ: stores don't check delivery contents; clerk reconciles later | Carrier saves time; SEJ saves money — mutual benefit |
| Revenue sharing | Blockbuster + studios; SEJ + suppliers | Supplier shares in retailer's success — removes hoarding incentive |
| VMI (Vendor-Managed Inventory) | Barilla's JITD; P&G + Walmart | Supplier controls replenishment with full demand visibility — eliminates bullwhip |
Lee's Triple-A framework: all three pillars must coexist. Agility handles short-term noise; Adaptability redesigns the network for long-term shifts; Alignment ensures partners pull in the same direction.
Yossi Sheffi and James Rice (MIT) define supply chain resilience as the ability to absorb disruptions and recover to normal performance — or improve beyond it. The question is not whether disruptions will occur, but how fast the chain returns to full capacity.
Two resilience strategies:
| Strategy | Mechanism | Cost | When to use |
|---|---|---|---|
| Redundancy | Hold extra inventory, dual-source suppliers, spare capacity | High (assets sitting idle normally) | When disruptions are catastrophic and rare; critical components |
| Flexibility | Design processes to switch modes quickly — cross-trained workers, modular equipment, multi-modal logistics | Medium (built into design) | When disruptions are frequent and varied; competitive markets requiring responsiveness |
Session 9 ties together the entire course. Here is how each session's key concept connects to the Triple-A framework and the central goal of maximising Supply Chain Surplus:
| Session | Key concept | Triple-A link |
|---|---|---|
| S1 — Fundamentals | SC Surplus = Customer Value − SC Cost | Foundation: defines what the chain is trying to maximise |
| S2 — Strategic Fit | Match supply chain design to competitive strategy | Adaptability: design must evolve with strategy |
| S3 — Bullwhip Effect | Information distortion amplifies variance upstream | Alignment: misaligned incentives + info asymmetry create the bullwhip |
| S4 — Seven-Eleven Japan | Demand-driven replenishment + cross-docking | All three: agile response, adaptive demographics shift, aligned carrier incentives |
| S5 — Production Planning | Newsvendor: balance Cu vs Co; push/pull | Agility: reactive capacity for uncertain styles |
| S6 — Reverse Logistics | Customer-centric design; returns as trust-building | Alignment: align returns policy with LTV of best customers |
| S7 — Global Sourcing | TCO, tailored sourcing, risk-sharing contracts | Adaptability: different supply chains for different product risk profiles |
| S9 — Triple-A | Agility + Adaptability + Alignment = sustainable advantage | The integrating framework for the whole course |
| S10 — Pertamina | Resilience at extreme geographic scale | All three: real-world application of the full course framework |
Adaptability is the strategic capacity to evolve the supply chain's fundamental design as markets, technologies, and geopolitics shift permanently. Unlike agility (short-term noise), adaptability addresses long-term structural signals.
Classic failure — Lucent: Maintained its manufacturing hub in Oklahoma City while the market moved to Asia. Components shipped Asia → US → back to Asian customers ("frequent-flyer" components). Adaptable rivals used Asian contract manufacturers to undercut Lucent's prices.
How to build adaptability:
- Monitor global trends continuously — economic shifts, political realignments, demographic change, technology disruption
- Design for flexibility: Commonality (shared components), Postponement (standardise early stages), Standardisation (switch between supply networks)
- Strategic segmentation: Different supply chains for different product lines as markets diverge
Alignment is the synchronisation of incentives across all supply chain partners so that when each player maximises its own interests, it also optimises the chain's overall performance. Misaligned incentives are the root cause of most coordination failures — including the Bullwhip Effect.
| Alignment mechanism | Example | Effect |
|---|---|---|
| Penalty for late delivery | SEJ: carriers pay penalty if truck is 30+ min late | Carrier incentive aligned with SEJ's on-time requirement |
| No-verification trust | SEJ: stores skip delivery checks; clerk reconciles later | Carrier saves time; SEJ saves money — mutual benefit |
| Revenue sharing | Blockbuster + studios; SEJ + suppliers | Supplier shares in retailer's success — removes hoarding incentive |
| VMI | Barilla's JITD; P&G + Walmart | Supplier controls replenishment with full demand visibility — eliminates bullwhip |
Lee's Triple-A framework: all three pillars must coexist simultaneously. Each addresses a different time horizon and type of disruption.
Sheffi and Rice (MIT) define SC resilience as the ability to absorb disruptions and recover to normal performance — or improve beyond it. The question is not whether disruptions occur, but how fast the chain recovers.
| Strategy | Mechanism | Cost | Best when |
|---|---|---|---|
| Redundancy | Extra inventory, dual-sourcing, spare capacity | High — assets idle normally | Disruptions rare but catastrophic |
| Flexibility | Cross-trained workers, modular equipment, multi-modal logistics | Medium — built into design | Disruptions frequent and varied |
Every session connects to the central goal of maximising Supply Chain Surplus = Customer Value − SC Cost:
| Session | Core concept | Triple-A link |
|---|---|---|
| S1 Fundamentals | SC Surplus, cycle/push-pull views, macro processes | Foundation of the whole course |
| S2 Strategic Fit | Efficiency ↔ Responsiveness spectrum; Apple | Adaptability: SC design must match strategy |
| S3 Bullwhip | 5 causes; Barilla JITD; demand distortion | Alignment failure creates the bullwhip |
| S4 Seven-Eleven | Demand-driven replenishment; cross-docking | All 3As: agile ops, adaptive model, aligned incentives |
| S5 Production Planning | Newsvendor; push/pull; Sport Obermeyer | Agility: reactive capacity for uncertain products |
| S6 Reverse Logistics | Zappos WOW; Amazon returns; sustainability | Alignment: policy aligns with customer LTV |
| S7 Global Sourcing | TCO; tailored sourcing; contracts; LEGO | Adaptability: match sourcing to demand profile |
| S9 Triple-A | Lee framework; Sheffi resilience | The integrating lens for all prior sessions |
| S10 Pertamina | One mandate, 17K islands, 3-tier countermeasures | All 3As applied at extreme real-world scale |
Pertamina — Resilient SC in Fuel Logistics
Group 3's analysis: One Nation, One Mandate — serving 287 million people across 17,000+ islands with zero stock-outs.
Pertamina is Indonesia's state-owned energy company, tasked with an extraordinary mandate: ensure continuous, affordable fuel availability for 287 million people across the world's largest archipelago — at a single, unified price regardless of location. This is not a commercial supply chain; it is a national infrastructure mission.
Asset base: 250+ vessels, 110+ refineries, 100+ terminals, and dozens of ports. Pertamina integrates refinery, shipping, and marketing operations — full vertical integration from production to last-mile delivery.
One price policy: Regardless of whether a terminal is in downtown Jakarta or a remote Papua village reachable only by aircraft, the price of fuel is the same. This means Pertamina internally cross-subsidises ultra-high-cost remote deliveries with the margins from high-density urban routes — a deliberate policy choice with major supply chain design implications.
Pertamina's core strategic challenge is captured in its own framing: "Volume through scale and efficiency. Challenging geography through extreme resilience." These two imperatives pull in opposite directions.
| Dimension | Scale & Efficiency logic | Resilience logic |
|---|---|---|
| Vessel scheduling | Large vessels on fixed routes minimise cost per KL | Flexible routing and vessel redeployment to handle demand shocks |
| Inventory | Minimise stock-holding cost across 100+ terminals | Buffer stock at remote terminals to withstand supply delays |
| Distribution mode | Standardise on cheapest mode (vessel) | Aircraft, barges, boats for locations inaccessible by standard shipping |
| Demand planning | Aggregate planning reduces noise | Any distortion in HOW/HOW MUCH/WHAT/WHERE/WHEN triggers replanning |
Pertamina's three regional supply chain designs — each tailored to the geography, density, and infrastructure constraints of that landscape. One company, three distinct operating models, one unified mandate.
Pertamina's resilience framework has three levels of response — each triggered by a different severity of supply disruption. This is pre-planned flexibility, not improvised crisis management.
| Plan level | Trigger condition | Response | Demand fulfilment |
|---|---|---|---|
| Regular Plan | Normal operations — supply follows original master programme | Scheduled vessel deliveries per plan; daily stock monitoring | 100% at all terminals (A, B, C) |
| Alternative Plan | Disturbance in supply — e.g. unexpected demand surge at Terminal B, or facility unreadiness | Reroute next supply vessel (Vessel BBB) to adjust allocation; coordinate across supply and distribution lines | A: 100% | B: 70% | C: 130% (temporary rebalancing) |
| Emergency Plan | Major disruption — vessel unavailability, extreme weather, infrastructure failure | Activate alternative modes (aircraft, barge); mobilise emergency supply from adjacent terminals | Priority allocation to maintain critical supply |
The most distinctive aspect of Pertamina's operating model is cultural: any distortion in HOW, HOW MUCH, WHAT, WHERE, or WHEN is treated as a trigger for replanning. Disruption is not an exception — it is the baseline assumption.
- Teams are permanently in "monitoring mode" — not just executing a plan, but watching for deviations
- Escalation paths are pre-defined — nobody needs to decide when to escalate; the thresholds are set in advance
- Alternative options are pre-identified — the organisation knows which vessels can be rerouted, which terminals can serve as overflow, which modes can substitute
- Recovery speed is measured — time from disruption detection to alternative plan activation is a KPI
This is the operational expression of Agility: building the processes, information systems, and relationships that make fast response possible — before you need them. In Pertamina's context, the stakes of slow response are political and humanitarian, not just commercial.
Pertamina's supply chain is a real-world stress test of the Triple-A framework at an extreme scale. Group 3's analysis mapped each pillar:
| Triple-A Pillar | Pertamina practice | Evidence |
|---|---|---|
| Agility | Regular/Alternative/Emergency countermeasure system | Pre-planned vessel rerouting activated within hours of demand disturbance; daily stock-out time monitoring at every terminal |
| Agility | Multi-modal last mile | Aircraft and barges deployed in Papua when standard logistics fail — backup modes pre-arranged, not improvised |
| Adaptability | Three distinct network designs for three geographies | Java (scale/efficiency), Kalimantan (river-adapted), Papua (isolation-resilient) — structural tailoring to permanent geographic reality |
| Adaptability | Floating storage units in Kalimantan | Adapted distribution centre concept to shallow-water geography — conventional terminals not viable |
| Alignment | One fuel price mandate creates internal cross-subsidy | Jakarta revenues fund Papua delivery costs — national alignment via policy rather than commercial incentive |
| Alignment | Vertical integration (refinery → vessel → terminal → truck) | All stages owned/controlled by Pertamina — eliminates inter-firm incentive misalignment; enables rapid redeployment |
Course Glossary
Exam-ready definitions organised by course part. Expand each section to review key terms.
| Term | Exam-ready definition |
|---|---|
| Supply Chain | All parties involved, directly or indirectly, in fulfilling a customer request — from raw material suppliers through manufacturers, distributors, retailers, and the end customer. |
| Supply Chain Surplus | Customer Value minus Supply Chain Cost. The central metric of SCM performance. All supply chain decisions should be evaluated by their impact on total surplus — not just cost to one party. |
| Supply Chain Management | The management of flows of product, information, and funds across the supply chain to maximise total surplus while keeping costs low and availability high. |
| Cycle View | Views the supply chain as a series of cycles (Customer Order, Replenishment, Manufacturing, Procurement), each occurring at the interface between two successive stages. Each cycle starts with an order and ends with receipt. |
| Push/Pull View | Classifies SC processes by whether they are initiated in response to a customer order (Pull) or in anticipation of one (Push). Pull processes have actual demand as trigger; Push rely on forecasts. |
| Push/Pull Boundary | The point in the supply chain where the operating logic shifts from push (forecast-driven) to pull (demand-driven). Positioning this boundary is a key strategic decision. |
| CRM (Customer Relationship Management) | Macro process at the interface between the firm and its customers. Generates demand and enables order fulfilment tracking. |
| ISCM (Internal Supply Chain Management) | Macro process internal to the firm — planning and fulfilling customer demand through production and distribution. |
| SRM (Supplier Relationship Management) | Macro process at the interface between the firm and its suppliers. Manages sourcing, negotiation, and supplier collaboration. |
| Strategic Fit | Alignment between the competitive strategy (what the firm promises customers) and the supply chain strategy (how the chain is configured). Misalignment leads to either underservice or unnecessary cost. |
| Implied Demand Uncertainty | The uncertainty of demand that the supply chain must handle given the products it offers and the markets it serves. High variety, short lead times, and high innovation all increase implied uncertainty. |
| Efficiency | A supply chain goal of minimising cost — typically achieved through standardisation, high utilisation, and economies of scale. Best for predictable, functional products. |
| Responsiveness | A supply chain goal of reacting quickly to demand — achieved through flexibility, excess capacity, and speed. Necessary for innovative, unpredictable products. Carries higher cost. |
| Functional products | (Fisher) Products with stable, predictable demand, long lifecycle, low margins. Require efficient supply chains. Examples: staple foods, toothpaste, standard hardware. |
| Innovative products | (Fisher) Products with uncertain demand, short lifecycle, high margins. Require responsive supply chains. Examples: fashion apparel, new electronics, seasonal items. |
| Term | Exam-ready definition |
|---|---|
| Bullwhip Effect | The amplification of order variability as you move upstream in the supply chain — small fluctuations in customer demand become massive swings in manufacturer orders. Named because a small flick of the wrist (retailer) creates a large crack at the tip (manufacturer). |
| Demand Signal Distortion | Each stage uses its own orders (not end-customer demand) to forecast, adding noise at every tier. The signal that reaches the manufacturer bears little resemblance to what the end customer actually bought. |
| Order Batching | Firms accumulate orders before placing them (weekly, monthly) to reduce ordering costs. Creates artificial demand spikes upstream even when end-demand is smooth. |
| Price Variation / Forward Buying | Promotional pricing induces customers to buy in bulk during promotions and go dark afterward — creating feast-famine patterns upstream that don't reflect true consumption rates. |
| Rationing Gaming | When supply is scarce, manufacturers ration based on order size. Buyers inflate orders to secure more allocation — creating phantom demand that evaporates when supply is restored. |
| Lead Time Inflation | Longer lead times require larger safety stock, which inflates orders, which extends lead times further. A self-reinforcing cycle that amplifies the bullwhip. |
| VMI (Vendor-Managed Inventory) | The supplier (vendor) takes responsibility for managing the retailer's inventory levels, using shared POS data to make replenishment decisions. Eliminates order batching and demand distortion by giving the supplier direct demand visibility. |
| JITD (Just-In-Time Distribution) | Barilla's proposed VMI system: Barilla would manage distributor inventory using shipment data, replacing distributor orders with Barilla-controlled replenishment. Eliminates the bullwhip at the manufacturer-distributor interface. |
| EDLP (Every Day Low Pricing) | A pricing strategy that eliminates promotional price swings, removing the incentive for forward buying. Reduces demand variability without requiring information sharing. |
| Information Sharing | Sharing real-time POS and inventory data with all supply chain partners. The most direct bullwhip mitigation — all stages plan from the same demand signal, eliminating distortion. |
| Cross-docking | A distribution technique where products from suppliers are unloaded at a distribution centre and directly transferred to outbound trucks with no storage in between. Eliminates DC inventory holding. Used by SEJ and Walmart. |
| Combined Delivery System | SEJ's approach of consolidating deliveries of like products from different suppliers into a single temperature-controlled truck per category, reducing the number of vehicles visiting each store from 70 (1974) to 9 (2006). |
| Point-of-Sale (POS) System | Captures transaction data (item, quantity, price, time, customer demographics) at the moment of sale. The foundation of demand-driven supply chain management — replaces forecast-guessing with actual consumption data. |
| Term | Exam-ready definition |
|---|---|
| Newsvendor Model | A single-period inventory model for products with uncertain demand and no replenishment opportunity. Balances the cost of ordering too much (overage) against ordering too little (underage) to find the optimal order quantity. |
| Underage Cost (Cu) | The cost per unit of ordering too few — typically the lost profit margin (p − c). Represents the opportunity cost of a stockout. |
| Overage Cost (Co) | The cost per unit of ordering too many — typically the loss on unsold units (c − s, where s = salvage value). Represents the cost of excess inventory. |
| Critical Ratio (CR) | CR = Cu ÷ (Cu + Co). The optimal service level — set order quantity Q* at the CR-th percentile of the demand distribution. High CR → order more; Low CR → order less. |
| Speculative (Push) Capacity | Production committed before demand is known, based on forecasts. Enables scale economies but creates over/under-production risk. Used in Obermeyer's Phase I for stable, high-consensus styles. |
| Reactive (Pull) Capacity | Production deferred until real demand signals are available. Higher accuracy, lower forecast risk, but requires responsive suppliers and may sacrifice economies of scale. |
| Risk Pooling | The statistical principle that aggregating independent demand streams reduces relative variability (coefficient of variation). Centralised inventory requires less total safety stock than decentralised inventory for the same service level. |
| Postponement | Delaying product differentiation to the last possible moment — producing a generic base product early, then customising when actual demand is known. Combines push (base) and pull (customisation) to reduce forecast risk. |
| MOQ (Minimum Order Quantity) | The smallest batch size a supplier will produce. High MOQ (e.g. China's 1,200 units) forces large commitments before demand is known — increasing overage risk for uncertain products. |
| Reverse Logistics | All supply chain flows moving in the reverse direction — from customer back to manufacturer, refurbisher, or recycler. Includes product returns, recalls, remanufacturing, and end-of-life take-back. |
| 365-day Return Policy | Zappos' customer commitment allowing returns at any time. Based on the insight that high-return customers have higher LTV (lifetime value) — they experiment more, buy more, and become brand advocates. |
| LTV (Lifetime Value) | The total net profit a company earns from a customer over the entire relationship. Zappos used LTV analysis to justify its generous return policy — high-return customers had the highest LTV, not the lowest. |
| Random Stocking | Zappos' warehouse methodology: items placed in any available bin regardless of brand/category. Prevents picking bottlenecks, maximises bin utilisation, and enables 100% inventory accuracy. |
| Recovery options | The disposition paths for returned goods: Re-stocking (sellable) → Refurbishing → Part recovery → Scrapping/Recycling. Value recovered decreases along this chain; goal is to maximise recovery rate. |
| Term | Exam-ready definition |
|---|---|
| Total Cost of Ownership (TCO) | The full cost of sourcing a product, including Acquisition costs (price, duties, taxes, admin), Ownership costs (inventory holding, quality defects, manufacturing impact), and Post-Ownership costs (warranty, recall risk, environmental). TCO is always greater than unit price. |
| Outsourcing | Contracting a third party to perform an activity previously done in-house. Justified when the third party's scale or specialisation creates SC surplus. Key risks: broken processes, loss of domain knowledge, lack of exit strategy. |
| Tailored Sourcing | Matching sourcing location to product demand profile. Offshore (low cost, high MOQ, long lead time) for stable, high-volume products. Nearshore/Onshore for uncertain, innovative, high-volatility products where responsiveness matters more than unit cost. |
| Buyback Contract | A risk-sharing mechanism where the manufacturer agrees to buy back unsold units at price b. Reduces the retailer's overage cost (Co = c − b), raising the critical ratio and encouraging higher order quantities. Both parties can gain vs. wholesale. |
| Revenue-Sharing Contract | Manufacturer sells at a lower wholesale price but receives a share of the retailer's revenue. Retailer benefits from lower upfront cost; manufacturer participates in upside. Classic example: Hollywood studios + Blockbuster video rental. |
| Quantity Flexibility Contract | Allows the retailer to adjust order quantities within an agreed range after observing early demand signals. Transfers some demand risk back to the manufacturer in exchange for flexibility. Valuable when early signals significantly improve forecast accuracy. |
| S&OP (Sales & Operations Planning) | A cross-functional planning process that aligns demand forecasts with supply capacity. LEGO's reformed S&OP (post-Flextronics) uses three phases: Demand Review → Capacity Review → Pre-S&OP Consolidation to decouple forecasts from sales incentives. |
| Agility (Triple-A) | The ability to respond quickly to short-term, unexpected changes in supply or demand and handle disruptions smoothly. Requires real-time demand visibility, flexible production, postponement, buffer stock of key components, and reliable backup logistics. |
| Adaptability (Triple-A) | The strategic capacity to evolve the supply chain's fundamental design in response to permanent shifts in markets, technology, or geopolitics. Requires continuous trend monitoring, supply network reconfigurability, and willingness to dismantle and rebuild. |
| Alignment (Triple-A) | Synchronising incentives across all chain partners so each player's self-interest aligns with chain-wide optimisation. Achieved through information sharing, risk/reward redistribution, clear role definition, and partner trust. |
| SC Resilience | The ability to absorb supply chain disruptions and recover to normal performance — or improve beyond it. Built through Redundancy (extra assets) or Flexibility (fast mode-switching). Flexible resilience is generally preferred in competitive markets. |
| Redundancy | Building resilience by holding extra inventory, dual-sourcing, or maintaining spare capacity. High idle cost but provides a buffer against catastrophic, rare disruptions. |
| Flexibility (resilience) | Building resilience by designing processes to switch modes quickly — multi-modal logistics, cross-trained workers, modular equipment. Lower idle cost than redundancy; preferred when disruptions are frequent and varied. |
| Countermeasure framework | Pertamina's three-tier response system: Regular Plan (follow master programme) → Alternative Plan (reroute vessels, rebalance terminals) → Emergency Plan (activate aircraft/barge, mobilise emergency supply). Pre-defined thresholds eliminate response lag. |
| Back-shoring | The reversal of an outsourcing decision — bringing previously outsourced production back in-house or to a closer geography. LEGO back-shored from Flextronics (2007–2008) after discovering manufacturing was core to its competitive advantage, not peripheral. |