PMP Process: 263 practice questions
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PMP Process: 263 practice questions

PMP 263 questions 12 shown free

12 of the 263 Process questions in the Certsqill PMP bank, shown in full below. Each one carries an explanation for every option, not just the correct one — the wrong answers are where the marks go.

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1. Mitigate — an action that reduces the probability: Which risk response strategy is this?

Medium
A project depends on a single software vendor whose financial stability is uncertain. If the vendor goes bankrupt, the project will fail. The project manager purchases a software escrow agreement (source code held by third party, released if vendor fails). Which risk response strategy is this?
  1. Transfer — shifting the financial impact of the threat to a third party
    Transfer moves financial risk to another party (e.g., insurance or penalty clauses) — the escrow doesn't shift financial exposure, it reduces impact by preserving access to the code.
  2. Avoid — eliminating the threat entirely by removing the underlying cause
    Avoiding the threat would mean switching vendors or removing the dependency altogether — the escrow keeps the same vendor relationship in place.
  3. Mitigate — an action that reduces the probability or impact of the threat
    A software escrow reduces the impact of vendor bankruptcy by ensuring the team can still access the source code. Mitigation reduces probability or impact without eliminating the risk.
  4. Accept — acknowledging the threat but taking no proactive action against it
    Acceptance takes no action to reduce the threat — arranging a software escrow is a proactive mitigation action, so this is not acceptance.
The trap
Labeling escrow as transfer because it involves a third party — transfer is financial risk shift (insurance); escrow reduces impact = mitigation

Mitigation = reduce probability or impact. Escrow reduces impact (ensures code access if vendor fails) = mitigation. Transfer = financial shift (insurance). Avoid = eliminate the risk source.

2. Share — bring in a third party better positioned to help: Which opportunity response strategy is this?

Medium
A project team discovers that a new technology could reduce development time by 40% if adopted. The technology is proven but the team lacks expertise. The project manager arranges for a technology vendor to join the project team to implement the solution together. Which opportunity response strategy is this?
  1. Exploit — take direct action to remove uncertainty and ensure the opportunity is realized
    Exploit acts to guarantee the opportunity happens (e.g., assigning the best internal resources). Partnering with a vendor because the team lacks the skills is sharing, not exploiting.
  2. Enhance — increase the probability or the positive impact of the opportunity
    Enhance raises an opportunity's likelihood or benefit without partnering, by adding focus or resources. Here the vendor is brought in to fill a skill gap, which is sharing.
  3. Mitigate — reduce the negative impact of adopting the unfamiliar new technology
    Mitigate is a threat response that reduces negative impact. The team is responding to a positive opportunity, not a threat, so mitigate does not apply.
  4. Share — bring in a third party better positioned to help capture the opportunity
    Share involves partnering with a third party (the vendor) who has the capability to capture an opportunity the team cannot fully exploit alone — the benefit is shared between the project and the vendor.
The trap
Choosing exploit when the team lacks skills and partners with a vendor — sharing involves a capable third party; exploiting uses your own resources to guarantee the outcome

Opportunity responses: Exploit (guarantee it), Share (partner with capable third party), Enhance (increase probability/impact), Accept. Partnering when your team lacks skills = Share.

3. -$30,000 — Risk A -$60K plus Risk B -$10K plus Opportunity: What is the total Expected Monetary Value (EMV) of

Hard
A project has two identified risks: Risk A has a 30% probability of occurring with an impact of $200,000 loss. Risk B has a 20% probability with an impact of $50,000 loss. There is also one opportunity: Opportunity C has a 40% probability with a positive impact of $100,000. What is the total Expected Monetary Value (EMV) of all three events?
  1. -$30,000 — Risk A -$60K plus Risk B -$10K plus Opportunity C +$40K
    EMV = Probability × Impact. Risk A: 0.30 × -$200K = -$60K. Risk B: 0.20 × -$50K = -$10K. Opportunity C: 0.40 × +$100K = +$40K. Total EMV = -$60K + (-$10K) + $40K = -$30K.
  2. -$70,000 — summing only the two threats and ignoring the opportunity
    EMV must include all events, threats and opportunities alike. Opportunity C contributes +$40K, giving a net EMV of -$30K, not -$70K.
  3. +$40,000 — counting only Opportunity C and ignoring both threats
    EMV must include every risk and opportunity. Both threats must be added to the total, so the correct net EMV is -$30K, not +$40K.
  4. -$350,000 — summing the raw impacts without weighting by probability
    EMV requires multiplying each impact by its probability — you cannot sum the full impact values without applying the probability weighting.
The trap
Calculating EMV using only threats — opportunities have positive EMV that offsets threat exposure in the total calculation

EMV = Σ(Probability × Impact). Threats are negative; opportunities are positive. Risk A: -$60K. Risk B: -$10K. Opportunity C: +$40K. Total = -$30K.

4. SPI = 0.80 and CPI = 0.89: What are the SPI and CPI, and what do they mean?

Hard
A project has: BAC = $500,000. At the status date: PV = $200,000, EV = $160,000, AC = $180,000. What are the SPI and CPI, and what do they mean?
  1. SPI = 0.89 (behind schedule), CPI = 0.80 (over budget)
    The formulas are reversed here. SPI = EV/PV (not EV/AC) and CPI = EV/AC (not EV/PV). Applying them correctly gives SPI = 160/200 = 0.80 and CPI = 160/180 = 0.89.
  2. SPI = 0.80 (behind schedule) and CPI = 0.89 (over budget)
    SPI = EV/PV = $160K/$200K = 0.80, so SPI < 1 means behind schedule. CPI = EV/AC = $160K/$180K = 0.89, so CPI < 1 means over budget. The project is both behind schedule and over budget.
  3. SPI = 1.25 (ahead of schedule) and CPI = 0.89 (over budget)
    SPI = EV/PV = 160/200 = 0.80, not 1.25. Because PV > EV, more was planned than accomplished, so the project is behind schedule, not ahead.
  4. SPI = 0.80 (behind schedule) and CPI = 1.12 (under budget)
    CPI = EV/AC = 160/180 = 0.89, not 1.12. Because actual cost exceeded earned value, CPI < 1 means the project is over budget, not under.
The trap
Swapping PV and AC in SPI/CPI formulas — SPI uses PV (planned), CPI uses AC (actual). EV is always the numerator.

SPI = EV/PV = 160/200 = 0.80 (behind schedule). CPI = EV/AC = 160/180 = 0.89 (over budget). Both < 1 means the project needs corrective action.

5. $500,000: What is the Estimate at Completion (EAC)?

Hard
A project has BAC = $400,000. Current status: EV = $100,000, AC = $125,000. The project manager believes the cost inefficiency will continue at the current rate for the remainder of the project. What is the Estimate at Completion (EAC)?
  1. $425,000 (EAC = AC + remaining work budget)
    EAC = AC + BAC - EV applies when remaining work will be performed at the original budget rate — but the PM stated the inefficiency will continue, requiring the CPI-based formula.
  2. $475,000 (EAC = AC + a new-estimate ETC)
    EAC = AC + ETC is used when a new estimate for remaining work is available — the question states using current CPI, so EAC = BAC/CPI applies.
  3. $500,000 (EAC = BAC / CPI = 400K / 0.80)
    CPI = EV/AC = 100/125 = 0.80. EAC = BAC/CPI = $400,000/0.80 = $500,000. This formula assumes the current cost performance will continue for remaining work.
  4. $320,000 (EAC = EV × BAC / AC formula)
    This calculation is not a standard EAC formula. The correct CPI-based EAC is BAC/CPI = 400,000/0.80 = $500,000.
The trap
Using EAC = AC + (BAC-EV) when told inefficiency will continue — use EAC = BAC/CPI when current performance rate is expected to persist

EAC = BAC/CPI when current performance trend continues. CPI = 100/125 = 0.80. EAC = 400,000/0.80 = $500,000.

6. Gold plating — the PM should remove the feature and route: What is this called, and what should the project ma

Easy
During development, a developer adds an advanced search feature to a web application because she believes users will love it, even though it was not in the approved requirements. The feature adds two weeks to the schedule. What is this called, and what should the project manager do?
  1. Scope creep — the PM should log it and handle it through the lessons-learned register at project close
    Scope creep is unauthorized expansion driven by stakeholder requests, whereas this expansion was initiated by the project team, which the exam classifies as gold plating — and it needs correction now, not just a lessons-learned note.
  2. Value-added enhancement — the PM should keep the feature because it clearly improves the product for users
    Even beneficial additions must pass through change control. Accepting an unauthorized change sets a precedent that bypasses governance and undermines baseline management.
  3. A technical risk — the PM should record it in the risk register and monitor the two-week schedule impact
    The schedule impact is a consequence of the gold plating, not the core issue — the primary problem is the unauthorized scope addition, which is a scope/change-control matter, not a risk to monitor.
  4. Gold plating — the PM should remove the feature and route all changes through the change control process
    Gold plating is adding unrequested features beyond approved scope, consuming resources without stakeholder approval. Regardless of good intentions, it bypasses change control and must be avoided.
The trap
Accepting gold plating because the feature seems valuable — all scope changes, regardless of perceived value, must go through change control

Gold plating = team adds unrequested features beyond approved scope. Always avoided — even 'good' additions must go through change control to maintain baseline integrity.

7. Submit the change request to the Change Control Board: What must happen next before implementing the change?

Medium
A key stakeholder requests a significant feature addition that will increase project scope by 15%. The project manager assesses the impact and determines it is feasible. What must happen next before implementing the change?
  1. Submit the change request to the Change Control Board (CCB) for its formal review and approval
    Integrated change control requires all significant changes to go through the CCB for formal approval before implementation — even when the PM believes the change is feasible and beneficial.
  2. Implement the change right away because the PM has already assessed it as feasible and beneficial
    The PM's feasibility assessment is an input to the change control process, not authorization to act — the CCB holds the approval authority to proceed.
  3. Ask the stakeholder to resubmit the request during the next scheduled planning cycle instead
    There is no requirement to defer a legitimate change request to a future cycle — it should be processed promptly through change control rather than delayed.
  4. Update the project management plan now to incorporate the newly requested feature addition
    The project management plan is updated only after the change is approved by the CCB — not before the approval decision is made.
The trap
Thinking PM feasibility assessment authorizes implementation — CCB approval is always required before implementing approved changes to baseline

Change control process: Submit request → PM assess impact → CCB reviews and approves/rejects → Implement if approved → Update baselines and PM plan.

8. Code reviews are QA: Which activities represent Quality Assurance and Quality Control respectively?

Medium
A project manager conducts code reviews to ensure the development team is following coding standards and best practices throughout the project. Later, the testing team runs test cases against completed features to identify defects. Which activities represent Quality Assurance and Quality Control respectively?
  1. Test-case execution is QA (process-oriented); code review is QC (product-oriented)
    This is reversed. QA is process improvement (code reviews, audits) and QC is product inspection (testing, defect detection). Testing inspects the product output, so it is QC, not QA.
  2. Code reviews are QA (process-oriented); test-case execution is QC (product-oriented)
    QA focuses on the processes used to create the product — code reviews ensure the team follows standards, preventing defects. QC inspects the actual output — test-case execution finds defects in completed features.
  3. Both are QC activities, since each one checks whether the agreed standards are being met
    Only test-case execution, which inspects the product, is QC. Code reviews evaluate the process and practices, which makes them QA — the two serve fundamentally different purposes.
  4. Both are QA activities, since each one works to prevent defects from reaching customers
    Only code reviews, which are process-focused, are QA. Test-case execution finds defects in the product, which is QC — it can catch defects before customers see them, but it is still QC.
The trap
Thinking testing is QA because it 'ensures quality' — testing inspects the product output = QC; QA evaluates the process used to build it

QA = process-oriented (audits, process reviews, standards adherence — prevent defects). QC = product-oriented (testing, inspection, defect detection — find defects).

9. Rework costs to fix defects found during customer: Which of the following is a Cost of Nonconformance?

Medium
A project manager categorizes quality-related costs. Which of the following is a Cost of Nonconformance?
  1. Training developers on secure coding standards to prevent future defects
    This is a Cost of Conformance (prevention cost) — building developer capability proactively prevents defects rather than repairing failures, so it does not belong in the nonconformance category.
  2. Purchasing automated testing tools to inspect builds before release
    This is a Cost of Conformance (appraisal cost) — inspection tooling spends money to find defects before delivery, an investment in quality, not a cost incurred because quality failed.
  3. Rework costs to fix defects found during customer acceptance testing
    Cost of Nonconformance = costs incurred because quality standards were NOT met. Rework to fix defects is a nonconformance cost — it arises from failure to build quality in the first place.
  4. Conducting peer code reviews to catch issues early in development
    This is a Cost of Conformance (prevention cost) — reviews proactively catch issues during development, preventing defects rather than paying for failures that have already occurred.
The trap
Thinking Cost of Quality only includes preventive investments — it includes both conformance (prevention/appraisal) and nonconformance (failure) costs

Cost of Quality = Conformance (prevention + appraisal) + Nonconformance (internal failure + external failure). Rework = nonconformance (internal failure).

10. Critical path = A→D→E→F: What is the critical path, and what is the total float on Path 1?

Medium
A project network has three paths: Path 1: A→B→C = 12 days. Path 2: A→D→E→F = 18 days. Path 3: A→G→H = 15 days. What is the critical path, and what is the total float on Path 1?
  1. Critical path = A→G→H (15 days); Float on Path 1 = 3 days
    The critical path must be the LONGEST path — 18 days (Path 2), not 15 days. Float on Path 1 = 18 - 12 = 6 days, not 3 days.
  2. Critical path = A→B→C (12 days); Float on Path 1 = 0 days
    The critical path is the longest path, not the shortest. Path 2 at 18 days is the critical path, so Path 1 (12 days) has 6 days of float, not zero.
  3. Critical path = A→D→E→F (18 days); Float on Path 1 = 3 days
    The critical path is correct (18 days), but float on Path 1 = 18 - 12 = 6 days, not 3 days — the subtraction of the two path durations was done incorrectly.
  4. Critical path = A→D→E→F (18 days); Float on Path 1 = 6 days
    The critical path is the longest path through the network — A→D→E→F at 18 days. Total float on Path 1 = 18 - 12 = 6 days (how much Path 1 can be delayed without delaying the project).
The trap
Thinking the critical path is the most important activities — the critical path is the LONGEST path through the network with zero float

Critical path = longest path (A→D→E→F = 18 days). Float = critical path duration - path duration = 18 - 12 = 6 days for Path 1.

11. Adding developers = crashing: Which options represent crashing and fast-tracking respectively?

Medium
A project is three weeks behind schedule. The project manager considers two options: (1) Adding two more developers to the critical path activities, or (2) Beginning the testing phase while development is still ongoing, accepting some rework risk. Which options represent crashing and fast-tracking respectively?
  1. Adding developers = crashing; overlapping phases = fast-tracking
    Crashing adds resources (cost) to accelerate critical path activities. Fast-tracking overlaps activities that were planned sequentially — it accelerates the schedule but increases risk (rework if sequential dependencies existed for good reason).
  2. Adding developers = fast-tracking; overlapping phases = crashing
    This reverses the definitions. Fast-tracking runs activities in parallel; crashing adds resources to shorten duration. Adding developers is crashing, and overlapping development with testing is fast-tracking.
  3. Both are crashing — both add resources to compress the schedule
    Only adding developers is crashing. Overlapping development and testing uses the existing resources but changes the activity sequence — that is fast-tracking, so the two options are not both crashing.
  4. Both are fast-tracking — both involve doing more work simultaneously
    Only overlapping the phases is fast-tracking. Adding resources to a single activity is crashing — it compresses duration by adding capacity, not by parallelizing work, so the two are not both fast-tracking.
The trap
Confusing crashing (add resources) with fast-tracking (overlap activities) — they are distinct techniques with different trade-offs

Crashing = add resources to shorten critical path activities (increases cost). Fast-tracking = parallelize sequential activities (increases risk). Both compress the schedule.

12. Firm Fixed Price: Which contract type should the buyer select?

Hard
A buyer is procuring construction work for a well-defined building project. The buyer wants to transfer maximum cost risk to the seller. Which contract type should the buyer select?
  1. Cost Plus Fixed Fee (CPFF) — all costs plus fee
    CPFF reimburses all of the seller's costs plus a fixed fee — the buyer, not the seller, bears the full cost-overrun risk, which is the opposite of transferring risk to the seller.
  2. Firm Fixed Price (FFP) — one fixed total price
    FFP sets a fixed total price regardless of actual costs — the seller bears all cost overrun risk. With well-defined requirements, this is safe for the buyer and transfers maximum cost risk to the seller.
  3. Time and Material (T&M) — hourly, no ceiling
    T&M pays for actual hours and materials with no cost ceiling, so the final price is open-ended — the buyer carries the cost risk, making it unsuitable for transferring maximum risk to the seller.
  4. Cost Plus Incentive Fee (CPIF) — shared savings
    CPIF shares cost overruns and underruns between buyer and seller through a share ratio — cost risk is split rather than fully transferred, so it does not maximize risk transfer to the seller.
The trap
Thinking CPIF is best for transferring cost risk — CPIF shares risk; FFP transfers maximum cost risk to the seller

FFP = maximum cost risk on seller (buyer wins if seller is efficient). CPFF/CPIF = cost risk on buyer. T&M = undefined cost risk on buyer. Use FFP with well-defined requirements.

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Part of the Certsqill PMP question bank · Process · Every answer, right and wrong, comes with its own explanation.