CPIM 9.0

From Mission to Functional Strategy

Every planning decision in CPIM traces back to the business strategy. A company first states why it exists and what it wants to become, then decides where it will compete and how it will win. Supply chain and operations strategy is a functional strategy: it turns those choices into decisions about capacity, inventory, sourcing, process, and technology. A plan that is efficient but does not support the way the company wins orders is a poor plan.

MISSION, VISION, AND VALUES Statement What it answers

Defines which markets and products the supply chain must serve.

Why the organization exists: its purpose, customers, and

What the organization aspires to become over the long

Sets the direction for capacity, network, and technology investments.

The principles that guide behavior and decisions. Values

Shape sourcing ethics, sustainability commitments, and safety rules.

Measurable targets derived from the mission and vision.

Become KPIs such as service level, inventory turns, and cost targets.

Strategy is set at three levels. Corporate strategy decides which businesses the firm is in and how resources are allocated among them. Business (business unit) strategy decides how each unit competes in its markets. Functional strategies in operations, supply chain, marketing, finance, and engineering carry out the business strategy. Decisions flow down, and feedback on capabilities and constraints flows back up.

THE STRATEGY HIERARCHY Level Key question

Acquisitions, divestitures, vertical integration, capital allocation across

What businesses should we be in?

Target segments, generic strategy, order winners, pricing position.

How do we compete in this market?

Functional How does this function support the business strategy?

How do we execute day to day?

Alignment questions describe a strategy and a proposed operations change and ask which choice is most consistent. The best answer supports the stated way of winning orders, even if another option lowers a single cost. A cost-reduction move that lengthens lead time is wrong for a company that wins on speed.

Competitive priorities are the dimensions on which operations can compete. No supply chain can be best on all of them at once, so the business strategy chooses which to emphasize. The trade-off idea is central: a design built for the lowest unit cost usually gives up flexibility, and a design built for fast, customized response usually carries more capacity and

Lowest total delivered cost; supports a low price or a higher margin. Requires volume, standardization, and efficient processes.

Conformance to specifications and fitness for use; also design quality, the features and performance offered.

Availability

Product is on hand or obtainable when the customer wants it, measured by fill rate or stockout frequency.

Doing what was promised: on-time, complete, accurate delivery every time.

Responsiveness

Speed: short customer lead time and quick response to orders and inquiries.

Ability to respond quickly and cost-effectively to unexpected change in demand, supply, or the market.

Ability to change product mix, volume, or design within existing resources: mix, volume, and product flexibility.

COMMON TRADE-OFFS PLANNERS MANAGE Emphasis Usually requires

Flexibility, responsiveness to unusual orders

Long runs, high utilization, few products, lean inventory

High availability Finished goods inventory close to customers

Inventory carrying cost and obsolescence risk

Spare capacity, short setups, local stock or capacity

Lower utilization, higher unit cost

Accurate data, stable schedules, buffers at constraints

Some buffer inventory or capacity

Order Winners, Order Qualifiers, and Order Losers

Terry Hill’s framework separates two kinds of customer criteria. Order qualifiers are the characteristics a product must have to be considered at all; meeting them gets the company onto the short list but does not win the business. Order winners are the characteristics that cause the customer to choose one qualified supplier over another. Improving a qualifier beyond the threshold adds little, while improving an order winner directly increases share.

An order loser is a qualifier on which poor performance loses the order, even if the company is strong elsewhere. Late delivery to a customer that runs a lean line is a classic order loser. Order winners and qualifiers differ by market segment and change over time; when competitors match a winner, it often becomes a qualifier, so operations must keep watching the market rather than optimizing last year’s criteria.

Basic quality, availability of a working product

Availability, delivery speed, reliability Growth

Price in a reasonable range, design acceptance

Price (cost), delivery reliability, service Maturity

Price, availability of spares and support Decline

A maker of industrial valves has always won on custom engineering. Two competitors now offer equivalent designs, and the largest distributor reports losing quotes to rivals that ship in five days instead of four weeks. Best response: the planner recognizes that design capability has become a qualifier and delivery speed is now the order winner for this segment. The planner proposes stocking common bodies and trim components to move the decoupling point closer to the customer, uses an assemble-to-order approach for standard configurations, and keeps engineer-to-order only for special designs.

Expect a short case that asks you to classify a criterion. Ask: does this criterion get the supplier considered (qualifier) or choose among qualified suppliers (winner)? Certifications, minimum quality, and acceptable price are usually qualifiers. When a question says performance on a criterion caused a lost order despite strengths elsewhere, the term is order loser.

Product and service differentiation makes an offering distinct in ways customers value: features, quality, customization, delivery speed, service support, or the experience of buying. Differentiation that relies on the supply chain, such as same-day availability or reliable configure-to-order delivery, is hard for competitors to copy because it depends on capabilities rather than on a single design.

Reveals capability gaps (weakness) against market openings (opportunity).

Lists internal strengths and weaknesses and external

Compares processes and results with best performers:

Benchmarking competitive, functional, or internal benchmarking.

Sets targets for lead time, inventory turns, perfect order, cost.

Assesses industry attractiveness: rivalry, threat of new entrants, threat of substitutes, buyer power, supplier power.

Strong supplier power argues for dual sourcing or vertical integration.

Cost leadership, differentiation, or focus (cost focus or

Cost leaders standardize and scale; differentiators invest in flexibility and service.

Shows which criteria are winners and which are only qualifiers.

Michael Porter’s value chain divides the firm into primary activities (inbound logistics, operations, outbound logistics, marketing and sales, service) and support activities (firm infrastructure, human resource management, technology development, procurement). Value chain analysis asks which activities create the value customers pay for and which add cost without value. The result guides make-or-buy, outsourcing, and process improvement decisions.

Product and Service Life Cycles

Products and services move through introduction, growth, maturity, and decline, often preceded by a development stage. Each stage changes demand volume, forecast accuracy, the order winners, and the right process and inventory policy. Planners manage a portfolio of items at different stages and plan transitions so that a new product’s launch and an old product’s phase-out do not leave excess or obsolete stock.

PLANNING IMPLICATIONS BY LIFE CYCLE STAGE Stage Demand and forecasting

Operations and supply chain emphasis

Flexible processes, small lots, close engineering support, limited

Low, uncertain volume; qualitative forecasts

Add capacity, secure suppliers, build distribution, protect availability

Cost reduction, standardization, high utilization, lean inventory

Stable, high volume; time series forecasts

Rationalize capacity, plan last-time buys, run down inventory, support

A make-or-buy decision chooses whether an item or activity is produced internally or purchased. At the strategic level the question is not only price. A firm keeps in-house the activities that are core competencies or that protect proprietary technology, and buys activities that suppliers perform better or more cheaply. Outsourcing converts fixed cost to variable cost but adds dependence and coordination risk.

STRATEGIC MAKE-OR-BUY FACTORS

Core competency: keep activities that create competitive advantage or are hard to replicate. Cost: compare the relevant total cost to make (variable cost plus avoidable fixed cost) with the total cost of ownership to

Capacity: making uses internal capacity that may be needed for higher-value work; buying adds flexible capacity. Control: making gives more control over quality, schedule, design changes, and intellectual property. Risk: buying adds supplier, geopolitical, and logistics risk; making adds investment and technology-obsolescence risk.

WORKED EXAMPLE 1: MAKE-OR-BUY BREAK-EVEN Step Calculation

Make: avoidable fixed cost $60,000 per year, variable cost $8 per unit. Buy: $11 per unit

Buy is cheaper by $15,000

Make is cheaper by $30,000

Total (weights sum to 1.00) 3.60: preferred

A make-or-buy item may give costs and ask for the break-even volume, or describe a part that embodies the company’s proprietary technology and offer a cheaper supplier. On cost alone, choose the lower relevant cost; when the part is a core competency or a control risk, the best answer keeps it in-house or protects it contractually.

Sunk costs are never relevant.

Qualifiers get the product considered, winners win the order, and a qualifier failed badly becomes an order loser. Order winners shift over the life cycle, from design early to price and reliability at maturity. SWOT, benchmarking, five forces, generic strategies, and the value chain locate advantage and gaps. Make-or-buy weighs core competency, cost, capacity, control, and risk; break-even = fixed cost ÷ (buy price −

Manufacturing Environments and the Decoupling Point

The manufacturing environment describes how far a product is built before a customer order arrives. The point where forecast-driven activity stops and order-driven activity begins is the customer order decoupling point, also called the order penetration point or push-pull boundary. Upstream of it, the supply chain pushes material to forecast and holds inventory; downstream, it pulls work through only against customer orders.

THE FIVE ENVIRONMENTS AND THE DECOUPLING POINT

Finished goods built to forecast

Components built to forecast ATO

Modules and options to forecast CTO

Push: built to forecast before the order

Pull: done after the order (customer lead time)

Customer order decoupling point (push-pull boundary, order penetration point)

Simplified schematic: the later the decoupling point sits in the process, the more inventory is held to forecast and the shorter the customer lead time.

Options or modules, using planning BOMs; final assembly schedule after the order

Options and features, planning BOMs with option percentages

Make-to-order Raw material, if any

End items or key components; backlog managed (MTO) purchasing if not stocked)

Moving the decoupling point downstream shortens customer lead time but increases inventory risk because more value is committed before demand is known. Moving it upstream lowers finished goods inventory and supports variety but lengthens lead time. Postponement delays final differentiation, such as labeling or configuration, until an order is received, so that common stock serves many end items.

A classic question gives a customer lead time requirement and a production lead time and asks for the environment. If the customer will not wait for any production, it is MTS. If they will wait for final assembly only, it is ATO. Remember that in ATO the MPS is planned at the option or module level, while a final assembly schedule builds the specific configuration once the order is received.

Process Types, Layouts, and the Product-Process Matrix

Process choice follows volume and variety. Project processes build unique, large items in place. Job shops make many low-volume products that follow different routings. Batch processes make moderate volumes in lots. Repetitive processes make standard or near-standard products in high volume on lines. Continuous processes produce commodities in a nonstop flow, such as refining or paper making.

Project scheduling, milestones, key resources

Fixed-position: resources come to the

Work orders, queues, dispatching, high WIP

Batch Moderate volume and Process or cellular variety

High volume, low variety Product (line) or cellular Repetitive

Very high volume, Product (flow) Continuous commodity

A cellular layout groups dissimilar machines into a cell that makes a family of similar parts, often using group technology. Cells combine some of the efficiency of a line with some of the flexibility of a job shop, and they shorten lead time and reduce WIP and material handling.

One of a kind Low volume, (unique) many products Process type

Several products, Few products, Commodity, medium volume high volume very high volume

Above the diagonal: flexibility the volume does not need (high unit cost)

Product (line) or cellular

Repetitive Below the diagonal: a rigid process that cannot handle the variety required Continuous

Product structure: volume rises and variety falls from left to right

Simplified schematic: in the Hayes-Wheelwright product-process matrix, a well-matched firm sits on the diagonal, pairing flexible processes with low volume and high variety and flow processes with high volume and low variety.

Service operations differ from manufacturing because the output is intangible, produced and consumed at the same time, and usually cannot be stored. The customer often participates in the process, so variability is higher. Because a service cannot be inventoried, capacity must flex to match demand, and capacity and queue management replace finished goods inventory as the main buffer.

SERVICE PROCESS TYPES (SCHMENNER) Type Labor intensity

Customer interaction and customization

Financial Performance and Supply Chain Decisions

Supply chain decisions show up in the financial statements. Inventory is a current asset on the balance sheet; cost of goods sold (COGS) is an expense on the income statement. Lower inventory frees cash and reduces assets, and lower carrying cost raises net income. Return on assets (ROA) = net income ÷ total assets, which equals profit margin × asset

Net income ÷ total assets Return on assets

Higher margin, fewer assets (less inventory)

Annual COGS ÷ average inventory value Inventory turns

Lower inventory for the same sales

Faster flow, smaller lots, less safety stock

Accounts receivable ÷ revenue × 365 Days of receivables

Accounts payable ÷ COGS × 365 Days of payables

Days of inventory + days of receivables − days of

Less inventory, faster collection, longer payables

WORKED EXAMPLE: CASH-TO-CASH CYCLE TIME Step Calculation

Revenue $36,500,000; COGS $25,550,000; inventory $4,200,000; receivables

An inventory reduction improves ROA twice: the denominator (total assets) falls and the numerator (net income) rises through lower carrying cost. Cash-to-cash questions often hide the sign of payables; payables are subtracted because supplier credit finances part of the cycle.

Operational KPIs and the SCOR Digital Standard

ASCM’s SCOR Digital Standard (SCOR DS) is a reference model for describing, measuring, and improving supply chains. Its processes are Orchestrate, Plan, Order, Source, Transform, Fulfill, and Return. Its performance attributes include reliability, responsiveness, agility, cost, and asset management efficiency, with sustainability-related attributes added for environmental and social performance.

Did we deliver what was promised? Reliability

How fast do we deliver? Responsiveness

How well do we respond to change? Agility

Cost What does it cost to operate the supply chain?

Total supply chain management cost, cost of goods sold

Asset management How well do we use assets and working capital? efficiency

Cash-to-cash cycle time, return on fixed assets

A perfect order is delivered complete, on time, to the right place, in perfect condition, with correct documentation. The measure is perfect orders ÷ total orders. When only component rates are known and the failures are roughly independent, multiply them: 96% on time × 98% complete × 99% damage-free × 97% correct documentation ≈ 90.3% perfect orders, which is lower than any single component rate.

Supply Chain Risk, Continuity, and Resilience

At the strategy level, supply chain risk management identifies events that could disrupt supply or demand, assesses their likelihood and impact, and chooses responses before they occur. Business continuity planning prepares the organization to keep critical operations running, or restore them quickly, after a disruption. Resilience is the ability to absorb a disruption and recover, built through redundancy, flexibility, visibility, and collaboration.

Assess likelihood and Identify risks impact

Select response Monitor and review

Avoid Remove the source of risk

Stop sourcing from an unstable region

Mitigate (reduce) Lower probability or impact

Qualify a second supplier, add safety stock at a constraint

Transfer (share) Shift impact to another party

Tolerate the risk, with a contingency plan Accept

A medical device distributor buys a critical sterile component from a single overseas supplier. A risk assessment rates a supplier outage as low probability but very high impact, because hospitals cannot wait. Best response: the planner recommends mitigation proportionate to impact: qualify a second source in a different region, hold strategic safety stock sized to the expected time to recover, map tier-2 suppliers, and document the continuity plan with trigger points. Accepting the risk

is not appropriate for a high-impact item.

Sustainability and Technology as Strategic Choices

Sustainability asks the supply chain to perform on the triple bottom line (people, planet, profit). A circular economy keeps materials in use through reuse, repair, remanufacturing, and recycling instead of a take-make-dispose flow. A carbon footprint counts greenhouse gas emissions, commonly reported as Scope 1 (direct), Scope 2 (purchased energy), and Scope 3 (the value chain, including suppliers and product use).

Enterprise resource planning: one integrated database and transaction system for planning, inventory, purchasing, production, and finance.

Advanced planning and scheduling: constraint-based, finite- capacity planning and optimization layered on ERP data.

Automation and robotics

Raise consistency and capacity; favor stable, high-volume processes and require capital and skills.

AI and analytics

Machine learning for forecasting, anomaly detection, and decision support; only as good as the data and governance.

Technology is a strategic decision because it locks in capabilities and costs for years. Choose systems that support the order winners and the planning environment, not the most advanced option on the market. Evaluate fit with strategy, data quality, integration with existing systems, total cost, cybersecurity, and the people and process changes needed to realize

Technology and sustainability items reward the answer that starts from the strategy and the process, not from the tool. An APS is justified when finite capacity and complex constraints limit the plan; AI forecasting needs clean history and governance; automation suits stable, high-volume work. A sustainability initiative is strongest when it also reduces waste or risk, and Scope 3 emissions require supplier collaboration.

MTS, ATO, CTO, MTO, ETO differ by the decoupling point; later decoupling means shorter customer lead time and

ATO and CTO plan the MPS at the option or module level and build the final configuration after the order. Process choice follows the product-process matrix: project and job shop for variety, repetitive and continuous for

Inventory is a balance sheet asset; cutting it raises ROA through both fewer assets and higher net income. Cash-to-cash = days of inventory + days of receivables − days of payables. SCOR DS processes: Orchestrate, Plan, Order, Source, Transform, Fulfill, Return; perfect order measures

Manage risk by identify, assess, respond, monitor; build resilience and weigh sustainability and technology