Marketing & Sales Strategy

Chapter 11
Sales Forecasting, Territories, Quotas and Pipeline Management

Advance Diploma in Sales Management
Marketing & Sales Strategy   •   Advance Diploma

Sales Forecasting, Territories, Quotas and Pipeline Management

Introduction

Sales management converts market opportunity into coordinated commercial action. Four decisions are especially important: how much the organisation is likely to sell, where selling effort should be deployed, what results should be expected from each salesperson or unit, and whether current opportunities are sufficient to achieve the plan. These decisions are interdependent. An unreliable forecast produces unrealistic quotas; poorly designed territories create unequal opportunity; and an unmanaged pipeline hides future revenue risk.

Sales forecasting is therefore not simply the prediction of a number. It is a disciplined process of combining evidence, assumptions, managerial judgement and market knowledge to guide resource allocation. In contemporary organisations, forecasts support production, inventory, cash-flow planning, recruitment, marketing expenditure and investor communication. The objective is not perfect prediction—an impossible standard—but a transparent, timely and increasingly accurate estimate that improves decisions.

Learning objectives

By the end of this chapter, the learner should be able to:

  1. Distinguish qualitative and quantitative sales forecasting methods.
  2. Apply funnel mathematics and probability-weighted pipeline calculations.
  3. Evaluate forecast accuracy using appropriate error measures.
  4. Design territories using workload, potential and service considerations.
  5. Set fair and motivating quotas linked to capacity and opportunity.
  6. Use scenario analysis to plan sales capacity and manage uncertainty.
  7. Diagnose pipeline risk and recommend governance and technology practices.

1. The sales planning system

A useful planning sequence is:

Market potential → sales forecast → capacity plan → territory design → quotas → pipeline requirements → performance control.

Market potential is the maximum reasonably available demand for a product in a defined market during a specified period. Sales potential is the share that a particular organisation could obtain under competitive and operational conditions. The sales forecast is the most probable level of sales, given assumptions about price, distribution, competition, customer demand and organisational capacity. A quota is a performance target assigned to a salesperson, territory, account, product or team.

These concepts must not be confused. A market may be large while the organisation’s forecast remains modest because it lacks delivery capacity. Conversely, a quota may be deliberately higher than the forecast to stimulate stretch performance, although excessive overstatement damages motivation and forecast credibility.

Forecasts should specify:

  • the measure: units, revenue, gross margin or contribution;
  • the period: month, quarter or year;
  • the population: product, segment, territory or total business;
  • the currency and price basis;
  • the information cut-off date; and
  • the assumptions and confidence level.

Revenue is often calculated as:

Revenue = Units sold × Price per unit

This identity assumes that price is expressed in currency per unit and that discounts, returns and taxes have been treated consistently. For managerial planning, gross-margin forecasts may be more useful:

Gross margin = Revenue − Variable cost

2. Qualitative forecasting

Qualitative methods are valuable when historical data are limited, markets are changing rapidly or the forecast concerns a new product. They rely on structured judgement rather than purely numerical extrapolation.

Executive opinion

Senior managers estimate future sales using strategic, financial and market knowledge. The method is fast but vulnerable to anchoring, optimism and political pressure. It is improved when managers document assumptions and provide independent estimates before discussion.

Sales-force composite

Salespeople estimate likely purchases from their accounts or territories. This approach uses local customer knowledge and can reveal early market signals. However, salespeople may understate expected sales to make quotas easier or overstate opportunities to appear successful. Training, common definitions and managerial review are necessary.

Customer-intention surveys

Customers are asked about planned purchases, budgets or purchase timing. Intentions are informative but not equivalent to orders. Purchase friction, changing budgets and competitor action can intervene between intention and transaction.

Delphi method

A panel of experts submits forecasts independently through several rounds. A facilitator summarises the range and reasoning without identifying individuals, allowing participants to revise their views. Delphi reduces status effects and group pressure, but it remains dependent on expert selection and question design.

Analogy and market experiments

A new product may be compared with a similar product launched in a comparable market. Alternatively, the organisation may test demand in a limited region. Analogies must be adjusted for differences in price, distribution, brand strength and market maturity.

Qualitative evidence is strongest when it is triangulated. For example, a forecast may combine customer interviews, salesperson estimates, competitor intelligence and a controlled pilot rather than relying on one executive estimate.

3. Quantitative forecasting methods

Quantitative methods use historical observations or measurable causal variables. They are not automatically objective: data definitions, missing observations, structural market changes and model choice influence the result.

Naïve forecast

The simplest method uses the previous period as the next-period forecast:

Ft+1 = At

where Ft+1 is the forecast for period t+1 and At is actual sales in period t. It is a useful benchmark and can perform well in stable demand, but it does not explicitly handle trend or seasonality.

Moving average

A moving average smooths random fluctuation:

Ft+1 = (At + At−1 + … + At−n+1) ÷ n

Here, n is the number of periods included. All observations receive equal weight. A larger n produces greater smoothing but responds more slowly to changes.

Example. Monthly sales were 90, 110 and 100 units. A three-month moving-average forecast is:

F4 = (90 + 110 + 100) ÷ 3 = 100 units

Weighted moving average

A weighted moving average gives different importance to observations:

Ft+1 = w1At + w2At−1 + … + wnAt−n+1

The weights must satisfy wi ≥ 0 and ∑wi = 1. If the most recent three months are weighted 0.5, 0.3 and 0.2, using sales of 100, 110 and 90 gives:

F4 = (0.5 × 100) + (0.3 × 110) + (0.2 × 90) = 101 units

Exponential smoothing

Exponential smoothing updates the previous forecast using the latest error:

Ft+1 = αAt + (1 − α)Ft

where 0 ≤ α ≤ 1 is the smoothing constant. A high α responds quickly to recent change; a low value produces a smoother forecast. The method assumes that the underlying pattern is reasonably stable unless trend or seasonal extensions are added.

Suppose α = 0.3, actual sales are 120 and the previous forecast is 100:

Ft+1 = (0.3 × 120) + (0.7 × 100) = 106 units

Trend and causal models

A linear trend model may be written as:

Ŷt = a + bt

where Ŷt is predicted sales, a is the intercept, b is estimated change per time period and t is the time index. Regression can also relate sales to drivers such as price, advertising, number of active accounts or economic indicators. Causal models are useful when a defensible relationship exists, but correlation alone does not prove causation. Structural breaks—such as a regulatory change or new competitor—can make historical relationships unreliable.

Seasonality

Seasonal patterns recur at predictable intervals. A seasonal index compares a period’s typical sales with average sales. If quarterly average sales are 80, 120, 100 and 100, the annual quarterly average is 100, producing indices of 0.80, 1.20, 1.00 and 1.00. A baseline forecast must be adjusted consistently; otherwise the same seasonal effect may be counted twice.

4. Measuring forecast accuracy

Accuracy measurement is essential because a forecast cannot be improved without feedback. The error for period t is:

et = At − Ft

A positive error means actual sales exceeded the forecast. Common measures include:

MAE = ∑|At − Ft| ÷ n
RMSE = √[∑(At − Ft)2 ÷ n]
MAPE = [∑(|At − Ft| ÷ |At|) ÷ n] × 100

Mean absolute error (MAE) is expressed in sales units. Root mean square error (RMSE) is also in sales units but penalises large errors more heavily. Mean absolute percentage error (MAPE) is intuitive but is undefined when actual sales equal zero and unstable when actual sales are very small. The selected metric should match the business decision. A company concerned about severe stock-outs may place greater emphasis on large under-forecasts than on average error.

Bias should also be monitored. Persistent positive or negative errors indicate systematic over- or under-forecasting. Accuracy reports should segment products, territories and forecast horizons; aggregate accuracy can conceal serious local problems.

5. Funnel mathematics and pipeline forecasting

The sales funnel represents movement from potential demand to closed business. Typical stages are lead, qualified opportunity, proposal, negotiation and closed-won. Stage definitions must be operational: “proposal” should mean more than a salesperson’s opinion that a proposal is likely.

For a simple funnel with constant conversion rates:

Expected wins = Leads × p1 × p2 × … × pk

where pi is the conditional probability of moving from one stage to the next. The probabilities must refer to the same population, time horizon and product context.

Example. A campaign generates 1,000 leads. Forty percent qualify, 50% of qualified leads receive proposals, and 20% of proposals close:

Expected wins = 1,000 × 0.40 × 0.50 × 0.20 = 40 wins

If average revenue per win is $2,500, expected revenue is $100,000, assuming independence is not required for this sequential calculation but the conditional rates are valid and stable.

Probability-weighted pipeline

For identifiable opportunities, the expected value of the pipeline is:

Expected pipeline value = ∑(Opportunity valuei × Probability of closei)

This is an expected value, not a promise. It assumes the assigned probability is a reasonable estimate and that opportunity outcomes can be represented by those probabilities. It should not be interpreted as a guarantee that the exact weighted amount will close.

Example. Three opportunities have values and probabilities of $40,000 at 0.80, $25,000 at 0.50 and $60,000 at 0.20:

Expected value = (40,000 × 0.80) + (25,000 × 0.50) + (60,000 × 0.20)
= 32,000 + 12,500 + 12,000
= $56,500

A common managerial error is to multiply the total pipeline by one average probability when opportunities have very different stages, sizes or customer risks. Opportunity-level weighting is more informative, although probabilities should be calibrated against historical outcomes.

Coverage ratio

Pipeline coverage compares open pipeline with quota:

Coverage ratio = Open pipeline value ÷ Quota

If open pipeline is $300,000 and quota is $100,000, coverage is 3.0×. Required coverage depends on conversion rates, margin, sales-cycle length and pipeline quality. A high ratio is not automatically healthy if opportunities are stale, duplicated or concentrated in one customer.

6. Territory design

A territory is a group of customers, prospects or geographic areas assigned for responsibility and control. Territory design should balance opportunity with workload rather than merely divide a map into equal areas.

Important design criteria include:

  • customer potential and current revenue;
  • number, size and complexity of accounts;
  • travel time and geographic accessibility;
  • service frequency and technical-support requirements;
  • language, culture and regulatory conditions;
  • channel conflict and account ownership;
  • salesperson capability and capacity; and
  • strategic priorities such as new-market development.

A workload approach estimates the time required to serve accounts. If account service requires 1,200 hours annually and one salesperson has 1,600 productive selling hours, theoretical utilisation is:

Utilisation = Required selling hours ÷ Available selling hours
Utilisation = 1,200 ÷ 1,600 = 75%

The remaining time allows for prospecting, administration, training and unexpected work. Available hours must exclude leave, meetings and non-selling duties; otherwise capacity is overstated.

Territory equality does not mean identical revenue. A mature territory may produce higher sales with less prospecting, while a developing territory may require greater effort before revenue appears. Fairness is better assessed through opportunity, workload, resources and controllability than through raw historical sales alone.

Territory allocation can use a matrix that classifies accounts by potential and service requirement. High-potential, high-service accounts receive intensive coverage; low-potential, low-service accounts may be served digitally or through inside sales. Rules must be documented to prevent arbitrary reassignment and disputes over account ownership.

7. Quota setting and capacity planning

A quota should be challenging, credible and linked to controllable activity. Common quota bases include revenue, units, gross margin, new accounts, retention, renewals and strategic activities. Revenue-only quotas can encourage discounting and unprofitable business; margin or balanced measures may better reflect organisational value.

Top-down quotas begin with corporate objectives and allocate them to regions, teams and individuals. Bottom-up quotas estimate territory potential, capacity and customer plans before aggregation. A robust system reconciles both approaches.

A quota allocation may use territory potential:

Territory quotai = Total quota × (Territory potentiali ÷ ∑Territory potential)

This formula is appropriate only when potential estimates are comparable and the organisation intends proportional allocation. Strategic adjustments may be needed for new-market investment, salesperson tenure or service constraints.

Example. A company quota is $1,000,000. Three territories have estimated potential of $4 million, $3 million and $3 million. Their proportional quotas are $400,000, $300,000 and $300,000. Management should then test whether each salesperson has sufficient capacity, pipeline and support to make those targets credible.

Capacity planning connects quotas with required salespeople and productivity. If annual quota is $2.4 million and expected annual productivity per salesperson is $400,000, the initial capacity estimate is:

Required salespeople = Total quota ÷ Expected productivity per salesperson
Required salespeople = 2,400,000 ÷ 400,000 = 6

This is a planning estimate, not a staffing order. Ramp-up time, turnover, leave, training and uneven territory potential may require additional capacity. A salesperson hired halfway through the year cannot normally be expected to deliver a full-year productivity assumption.

8. Scenario analysis and risk management

A single forecast can create false certainty. Scenario analysis develops coherent sets of assumptions, commonly labelled base, upside and downside. Each scenario should specify changes in volume, price, conversion, sales-cycle duration, capacity and competitor behaviour.

A simple revenue model is:

Revenue = Number of opportunities × Win rate × Average deal value

This identity assumes a consistent opportunity definition and average value for the analysed period. It is useful for sensitivity analysis. If 500 opportunities have a 20% win rate and average deal value of $8,000, revenue is:

Revenue = 500 × 0.20 × 8,000 = $800,000

If the win rate falls to 15% while other variables remain constant, revenue becomes $600,000. Management can then ask whether additional opportunities, improved qualification or higher-value packages can close the gap.

Scenario analysis should not merely change the final number. It should identify triggers and actions. For example, a downside scenario may be activated when proposal-to-close conversion falls below 18% for two consecutive months. Actions might include executive sponsorship for strategic deals, revised qualification, targeted campaigns or temporary redeployment of specialists.

9. Pipeline management and governance

Effective pipeline management is a behavioural and governance system, not just CRM data entry. Each opportunity should have a customer problem, economic value, decision process, next action, expected close date, responsible owner and evidence supporting its stage.

Managers should inspect:

  • stage ageing compared with normal sales-cycle duration;
  • opportunities without a scheduled next step;
  • repeated close-date slippage;
  • concentration by customer or industry;
  • unusual probability patterns;
  • duplicate records and inactive opportunities;
  • gaps between quota and weighted pipeline; and
  • conversion rates by salesperson, segment and source.

Forecast categories should be clearly defined. “Commit” should mean that evidence supports a high likelihood of closing within the period, not merely that the salesperson feels confident. “Best case” should be plausible under specified conditions. Closed-lost reasons should be coded consistently so that the organisation learns from failure.

A sound review rhythm may include weekly opportunity inspection, monthly forecast calibration and quarterly territory or quota review. Reviews should focus on evidence and decisions rather than blame. If people are punished for honest updates, they will delay bad news and corrupt the forecast.

Technology and artificial intelligence

CRM platforms can automate stage ageing, calculate weighted pipeline, identify missing fields and compare forecasts with outcomes. Machine-learning systems may detect patterns associated with churn, deal slippage or conversion. However, predictive tools inherit data-quality and historical-bias problems. A model trained on past sales may undervalue new segments or reproduce unequal lead allocation. AI outputs should be explainable enough for managerial challenge, monitored for drift and treated as decision support rather than unquestionable truth.

10. Ethical and governance considerations

Sales forecasts influence employment, inventory, investor expectations and customer commitments. Deliberate sandbagging, inflated probabilities, hidden discounting and premature opportunity creation are forms of information distortion. Governance should establish definitions, approval rights, audit trails and separation of forecast from incentive manipulation where possible.

Customer data used for territory and pipeline analysis must be collected and processed lawfully. Access should follow role-based principles, sensitive information should be protected, and retention periods should be defined. Automated scoring should be reviewed for discriminatory effects, particularly when it influences lead assignment, service priority or salesperson evaluation.

Quota fairness also has an ethical dimension. Targets should account for territory potential, inherited accounts, ramp-up time and material changes outside the salesperson’s control. A transparent appeals process is preferable to informal exceptions that favour politically influential employees.

Illustrative case: Northstar Industrial Supplies

Background

Northstar sells maintenance components to manufacturing firms through six field territories. Its annual revenue target is $6 million. Forecast meetings have been unreliable: salespeople report large pipelines, but quarterly revenue repeatedly falls short. Two territories also complain that account assignments are unfair.

Problem

The CRM contains 420 open opportunities, but 30% have no recorded next action and many have had their close dates moved repeatedly. Management multiplies total pipeline by a single 40% probability and reports the result as the forecast. Territory quotas were divided equally despite substantial differences in customer density and travel time.

Analysis

A data review removes duplicates and opportunities with no customer-confirmed need. The remaining pipeline is segmented by stage and historical conversion. The team finds that qualified opportunities convert to won business at 25%, proposals at 45%, and late negotiations at 70%. These are conditional historical rates, not arbitrary confidence scores.

The sales operations manager also estimates annual account-service workload. Territory A requires 1,500 hours, Territory B 1,050 hours and Territory C 1,300 hours. Each field salesperson has 1,600 productive hours. Territory A is near capacity, while Territory B has room for prospecting. Equal quotas therefore do not represent equal commercial conditions.

Approach and solution

Northstar introduces evidence-based stage definitions and requires a next action and customer-confirmed timing for forecast inclusion. It calculates opportunity-level weighted value rather than applying one probability to the entire pipeline. It separates a statistical expected pipeline from a manager-approved commit forecast.

Territories are redesigned using account potential, service workload and travel time. Quotas are allocated through a hybrid method: corporate targets provide the total, while territory potential and capacity determine distribution. A quarterly adjustment process is created for major account losses, product withdrawals and new hires.

Managers now compare forecast, actual sales, MAE and bias by territory. A dashboard flags opportunities older than the normal stage duration and close dates changed more than once. Salespeople are trained that accurate risk reporting is a performance behaviour, not evidence of failure.

Outcome

After two quarters, Northstar reports a lower headline pipeline but a more stable forecast. Forecast bias declines, late-stage surprises reduce and management identifies an under-served group of mid-sized accounts in Territory B. The company adds inside-sales support rather than assigning more travel to Territory A. The apparent reduction in pipeline is therefore a sign of improved data quality, not deteriorating demand.

Learning points

  1. A large unqualified pipeline can conceal weak future revenue.
  2. Probabilities should be calibrated from comparable historical outcomes.
  3. Territory fairness requires workload and opportunity analysis.
  4. Forecast governance must reward truthful information.
  5. Capacity, quotas and pipeline requirements must be planned together.

Challenges and limitations

No forecasting method eliminates uncertainty. Historical methods fail after structural market changes; judgement can be biased; CRM probabilities may be manipulated; and averages conceal variation among deals. Probability-weighted values can be misleading when opportunities are correlated—for example, when all depend on one economic recovery or procurement decision. Scenario analysis improves preparedness but does not assign certainty to future events.

Managers should therefore use multiple methods, document assumptions, test forecasts against actual outcomes and revise models when market conditions change. Accuracy should be evaluated over an appropriate horizon rather than judged from one unusual period. Most importantly, forecast quality depends as much on definitions, incentives and information behaviour as on statistical technique.

Best-practice checklist

  • Define the forecast measure, period and assumptions.
  • Combine qualitative evidence with quantitative benchmarks.
  • Use stage-specific, historically calibrated probabilities.
  • Remove duplicate, stale and unsupported opportunities.
  • Separate weighted expectation from managerial commit.
  • Design territories around opportunity and workload.
  • Adjust quotas for capacity, ramp-up and material environmental change.
  • Monitor MAE, RMSE, percentage error and systematic bias.
  • Use base, upside and downside scenarios with trigger actions.
  • Protect customer data and audit automated recommendations.
  • Reward accurate reporting rather than optimistic reporting.

Chapter Summary

Sales forecasting is a structured estimate of likely future sales, while quotas are assigned performance targets and territories define responsibility for customers or markets. Qualitative methods are particularly useful for new or unstable markets; quantitative methods provide repeatable benchmarks when reliable data exist. Moving averages, weighted averages, exponential smoothing and causal models each have assumptions and limitations.

Funnel mathematics estimates progression through sequential stages, while probability-weighted pipelines estimate expected value for identifiable opportunities. These measures are useful only when stage definitions and probabilities are credible. Forecast accuracy should be assessed using error, MAE, RMSE, MAPE and bias, selected according to the decision context.

Territory design should balance opportunity, workload, geography, service requirements and salesperson capacity. Quotas should reconcile corporate ambition with bottom-up evidence and should be fair, measurable and sufficiently controllable. Scenario analysis exposes the effect of changing conversion, volume and deal value assumptions. Effective pipeline management combines CRM technology, disciplined governance, ethical data use and a culture in which truthful information is valued.

Key Terms

Sales forecast: An estimate of likely sales for a defined product, market and period.

Market potential: Maximum reasonably available demand in a defined market.

Sales potential: The share of market demand an organisation could obtain.

Quota: A target assigned to an individual, team, territory, product or account.

Naïve forecast: A forecast using the previous period’s actual result.

Moving average: An average of recent observations used to smooth fluctuations.

Exponential smoothing: A forecasting method that updates a forecast using a smoothing constant.

Seasonality: A recurring demand pattern associated with time periods.

Forecast error: The difference between actual and forecast sales.

MAE: Mean absolute error, expressed in the original sales unit.

RMSE: Root mean square error, which gives greater emphasis to large errors.

MAPE: Mean absolute percentage error.

Sales funnel: The sequence through which prospects progress toward purchase.

Conversion rate: The proportion moving from one defined stage to another.

Probability-weighted pipeline: The sum of opportunity values multiplied by their estimated close probabilities.

Coverage ratio: Open pipeline divided by quota.

Territory: A defined group of customers, prospects or geographic areas assigned for responsibility.

Capacity: The productive selling resources available during a period.

Scenario analysis: Evaluation of outcomes under coherent alternative assumptions.

Forecast bias: Persistent tendency to over-forecast or under-forecast.

Review Questions

Short Answer Questions

  1. Distinguish market potential, sales potential, sales forecast and quota.
  2. State two limitations of using a moving average.
  3. What does a probability-weighted pipeline represent?
  4. Identify three factors that should influence territory design.
  5. Why should forecast bias be monitored alongside forecast accuracy?

Long Answer Questions

  1. Compare qualitative and quantitative forecasting methods and explain when each is most appropriate.
  2. Explain how funnel mathematics and probability-weighted pipelines support sales planning.
  3. Discuss the principles of fair and effective quota setting.
  4. Evaluate the role of CRM systems and artificial intelligence in pipeline management.
  5. Explain why capacity, territory design, quotas and forecasts must be integrated.

Analytical / Application Questions

  1. A team has 800 leads, a 35% qualification rate, a 40% proposal rate and a 25% proposal-to-close rate. Calculate expected wins and explain two assumptions that should be tested before using the result.
  2. Three opportunities are valued at $50,000 with probability 0.6, $30,000 with probability 0.4 and $80,000 with probability 0.15. Calculate the probability-weighted pipeline and explain why it should not be treated as guaranteed revenue.
  3. A territory has $900,000 of annual potential but requires 1,700 service hours, while the assigned salesperson has 1,500 productive hours. Recommend how management should review the territory, quota and capacity relationship.

Multiple Choice Questions with Answers

Question 1

Which method uses the previous period’s actual sales as the next-period forecast?

A. Naïve forecast

B. Delphi method

C. Causal regression

D. Customer-intention survey

Correct Answer: A. Naïve forecast

Question 2

A three-month moving average uses sales of 90, 110 and 100 units. What is the forecast for the next month?

A. 90 units

B. 95 units

C. 100 units

D. 110 units

Correct Answer: C. 100 units

Question 3

What is the probability-weighted value of a $40,000 opportunity with a 0.75 close probability?

A. $10,000

B. $30,000

C. $40,750

D. $53,333

Correct Answer: B. $30,000

Question 4

If open pipeline is $240,000 and quota is $80,000, what is the coverage ratio?

A. 0.33×

B. 1.5×

C. 2.0×

D. 3.0×

Correct Answer: D. 3.0×

Question 5

Which measure penalises large forecast errors more heavily than MAE?

A. MAPE

B. RMSE

C. Coverage ratio

D. Conversion rate

Correct Answer: B. RMSE

Question 6

Which factor is most relevant to workload-based territory design?

A. Salesperson’s preferred colour

B. Number of service and selling hours required

C. Total company headcount only

D. The previous forecast alone

Correct Answer: B. Number of service and selling hours required

Question 7

A funnel has 1,000 leads, a 40% qualification rate, a 50% proposal rate and a 20% close rate. What are the expected wins?

A. 20

B. 40

C. 80

D. 100

Correct Answer: B. 40

Question 8

Which statement best describes a quota?

A. The maximum possible market demand

B. An assigned performance target

C. The number of CRM records

D. A probability of closing

Correct Answer: B. An assigned performance target

Question 9

Why can MAPE be problematic when actual sales are zero?

A. It cannot be calculated using percentages

B. It becomes undefined because of division by zero

C. It always equals zero

D. It measures only pipeline coverage

Correct Answer: B. It becomes undefined because of division by zero

Question 10

Which practice most improves pipeline governance?

A. Allowing every salesperson to define stages differently

B. Including every historical opportunity indefinitely

C. Requiring evidence, a next action and a defined close date

D. Applying one probability to all opportunities

Correct Answer: C. Requiring evidence, a next action and a defined close date

Marketing & Sales Strategy
Chapter 11 of 15