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Level 2Value engineering

ValueLens Advanced: Applied Value Optimization

Design and facilitate complete value studies: study selection, team facilitation, complex function analysis and FAST review, cost/worth modelling with data confidence, discounting and NPV, sensitivity and scenarios, structured innovation, multi-criteria decisions, proposals and benefits tracking.

Leads to the PVology Certified ValueLens Practitioner (PCVP) after you pass the exam, your practical work is approved and the Academy approves the result.

A PVology credential: not issued, accredited or endorsed by PMI, ISO, SAVE International or any other body.

Who it is for

Value practitioners and facilitators who hold the ValueLens Associate credential (or an approved equivalent).

Prerequisite: An active PVology Certified ValueLens Associate credential, or an approved equivalent-learning exception.

Learning effort: about 34 hours, calculated from the authored lessons, activities and checks.

Case study: Meridian Health regional hospital wing. Meridian Health is a fictional public health authority. All people, figures and datasets are invented for teaching.

Syllabus

  1. Module 1. Value-study selection, strategic value and portfolio interfaces

    • 1. Screening a portfolio for value-study candidates · about 55 minFree preview
    • 2. Timing, influence and strategic value: the East Wing case · about 55 min
    • 3. Portfolio interfaces: applying selection across project boundaries · about 55 min
    Learning outcomes
    • Apply a weighted screen to rank value-study candidates in a capital or change portfolio
    • Distinguish signals that a subject will repay a full study from signals that a lighter review is enough
    • Allocate a limited study budget across candidates and justify the sequence
    • Explain the limits of scoring and when judgment should override the ranking
    • Calculate the net value of the same improvement at different project stages, including redesign and delay costs
    • Choose study touchpoints that balance remaining influence against information quality
    • Translate an organizational objective into a quantified study objective with stated assumptions
    • Identify double counting and over-monetization in strategic value claims
    • Classify interfaces between a study subject and other projects in the portfolio
    • Calculate the portfolio-level effect of a proposal that shifts cost between projects
    • Draft an interface register entry with a study treatment and decision owner
    • Justify whether to exclude, assume, jointly study or escalate an interface
  2. Module 2. Advanced study preparation and facilitation of multidisciplinary teams

    • 1. Sponsor alignment, team design and the study plan · about 55 min
    • 2. Group dynamics, dominant voices and hybrid workshops · about 55 min
    • 3. Managing conflict and keeping the sponsor aligned · about 55 min
    Learning outcomes
    • Draft a sponsor alignment record that separates non-negotiables, preferences and decision rights
    • Design a multidisciplinary team for a complex subject and justify each seat
    • Calculate a study budget from team hours, facilitation and other costs and compare it with the allowance
    • Plan pre-workshop interviews and information requests that expose likely conflicts early
    • Calculate participation measures (equal share, dominance ratio, quietest-group share) from an airtime log
    • Select structural, relational and in-the-moment interventions for a dominant voice
    • Design a hybrid or remote workshop session that gives remote participants equal access
    • Explain how anchoring, status and production blocking reduce the knowledge a team uses
    • Distinguish task conflict from relationship conflict and choose a response for each
    • Restate opposing positions as interests and then as functions with required performance
    • Calculate the cost effect of an interest-based solution and check it against non-negotiables
    • Decide when a conflict should be resolved by the team and when it must go to the sponsor
  3. Module 3. Complex function analysis, FAST review and system interfaces

    • 1. Function analysis for complex systems: levels, scope and interfaces · about 55 min
    • 2. Reviewing a FAST model: the East Wing draft · about 55 min
    • 3. System interfaces: matrix, criticality and value at the seams · about 55 min
    Learning outcomes
    • Construct a system-level FAST model with nested subsystem models that remain logically consistent
    • Place left and right scope lines for a system with many external connections and justify them
    • Identify interface functions and explain why they need explicit treatment
    • Allocate the cost of a shared interface element to the functions it performs
    • Apply the five passes of the PVology Academy FAST Review Protocol to a draft model
    • Calculate statement, logic and cost-coverage measures and compare them with acceptance thresholds
    • Rewrite defective function statements and repair broken How-Why links
    • Decide how to treat unallocated cost such as contingency before cost and worth analysis
    • Build an interface matrix for a system and calculate the number of possible interfaces
    • Rate interfaces for criticality and link critical interfaces to required functions
    • Compare alternatives at an interface when a required function such as resilience is included
    • Explain why interface elements with small cost can carry large value and risk
  4. Module 4. Cost/worth modelling, opportunity prioritization and data confidence

    • 1. Cost/worth modelling at practitioner depth · about 55 min
    • 2. Opportunity prioritization: the East Wing cost/worth model · about 55 min
    • 3. Data confidence and its effect on decisions · about 55 min
    Learning outcomes
    • Allocate fees, preliminaries and contingency to functions pro rata and check that the model rolls up to the estimate
    • Select a worth-estimating method (benchmark, functional equivalent, parametric, simplest compliant solution) and justify it
    • Express worth as a three-point range with a PVology Academy Data Confidence Grade
    • Calculate value indexes and gaps with ranges, and explain the limitations of the result
    • Calculate a Pareto of function gaps with cumulative shares and identify where the gap concentrates
    • Combine gap and value index to classify functions as priorities, watch items or low priorities
    • Calculate confidence-weighted gaps and explain how they change the ranking
    • Select creativity focus functions while protecting required functions and flagging sponsor preferences
    • Calculate a three-point (PERT) mean and the probability that a triangular estimate falls below a threshold
    • Test whether a prioritization decision is robust across the range of uncertain estimates
    • Decide whether to buy better data using a simple value-of-information comparison
    • Communicate confidence in tables and words without false precision
  5. Module 5. Life-cycle cost, discounting, NPV, replacement and residual value

    • 1. Discounting at practitioner depth: factors, real and nominal rates, escalation · about 55 min
    • 2. Meridian Health HVAC plant: a full 30-year NPV comparison with replacement and residual value · about 58 min
    • 3. Unequal lives, replacement cycles and equivalent annual cost in practice · about 55 min
    Learning outcomes
    • Calculate present values using single-payment, uniform-series and escalating-series factors, stating the timing convention
    • Distinguish real and nominal cash flows and rates, and convert between them with the exact relationship
    • Diagnose the two classic consistency errors (nominal flows at a real rate and real flows at a nominal rate) and quantify their effect
    • Justify the choice of discount rate, study period and price basis in a study charter
    • Build a 30-year present-value life-cycle cost model for two alternatives with recurring, replacement and residual items
    • Calculate residual value at the end of a study period using a stated remaining-life method
    • Compare alternatives by present-value difference and explain which items drive the result
    • Record the model in PVology Value life-cycle cost rows and check the tool's output against hand calculation
    • Compare alternatives with different service lives over a common study period using replacement cycles and residual value
    • Calculate equivalent annual cost with the capital recovery factor and explain when it is valid
    • Determine an economic replacement cycle for a repeating asset and judge whether the difference is decision-relevant
    • Draft a review note that identifies errors and false precision in a colleague's life-cycle comparison
  6. Module 6. Uncertainty, sensitivity, scenario analysis and risk-adjusted comparison

    • 1. Sources of uncertainty, one-way sensitivity and switching values · about 55 min
    • 2. Meridian Health HVAC: tornado ranking and switching values · about 57 min
    • 3. Scenario analysis, explicit risks and risk-adjusted comparison · about 56 min
    Learning outcomes
    • Classify uncertainties in a value-study model as estimate, parameter, scenario or structural uncertainty
    • Calculate one-way sensitivities and switching (break-even) values for the key inputs of an NPV comparison
    • Interpret a switching value as a percentage change and judge its plausibility against evidence
    • Explain the limitations of one-way sensitivity, including correlated inputs
    • Calculate one-way sensitivities for five drivers of the Meridian HVAC comparison and rank them by swing
    • Interpret a tornado ranking to decide where to invest in better evidence
    • Calculate switching values for the yearly saving, capital premium and discount rate
    • Explain why adding a risk premium to the discount rate distorts a cost comparison
    • Construct coherent scenarios that move correlated inputs together, with stated probabilities
    • Calculate a risk-adjusted expected present-value difference that includes alternative-specific risk events
    • Calculate the probability that a preferred alternative turns out worse, from a discrete combination of scenarios and risks
    • Draft a recommendation that reports expected value, range and downside, and proposes risk responses
  7. Module 7. Advanced creativity and structured innovation techniques

    • 1. Structured innovation: function prompts, contradictions, SCAMPER and morphological analysis · about 55 min
    • 2. Meridian Health: a structured creativity session on three priority functions · about 56 min
    • 3. Facilitating structured techniques: design, dynamics and feedback · about 55 min
    Learning outcomes
    • Generate function-based prompts from a cost/worth model and analogies from other fields that perform the same function
    • Restate a design conflict as a contradiction and apply four separation strategies to resolve it without compromise
    • Apply SCAMPER prompts to an existing solution and build a morphological box, counting coherent combinations
    • Select a structured technique to suit the type of problem and the stage of the study
    • Plan a multi-technique creativity sequence matched to priority functions from a cost/worth model
    • Resolve a clinical-versus-energy contradiction with separation strategies while holding mandatory requirements fixed
    • Build a morphological box for a construction system, calculating coherent combinations with overlapping exclusions
    • Calculate idea yield and survival measures by technique and interpret them with caution
    • Design a timed agenda that sequences structured techniques from divergent to convergent within a fixed session length
    • Diagnose participation imbalance from contribution data and select an intervention
    • Adapt structured techniques for remote and hybrid teams
    • Critique a creativity session plan and give specific, actionable feedback
  8. Module 8. Multi-criteria decisions, weight sensitivity and avoiding false precision

    • 1. Weights from pairwise comparison, consistency and normalization · about 55 min
    • 2. Meridian Health ward block: weight sensitivity, normalization effects and rank reversal · about 58 min
    • 3. Avoiding false precision and presenting uncertainty in multi-criteria results · about 55 min
    Learning outcomes
    • Derive criteria weights from a ratio-scale pairwise comparison matrix using the geometric-mean method
    • Calculate and interpret a consistency check for a pairwise matrix
    • Compare ratio (linear) and min-max normalization and explain how each affects scores
    • Distinguish mandatory screens from weighted criteria and justify where cost belongs
    • Calculate weighted totals for three alternatives under min-max and ratio normalization and explain the difference
    • Calculate the switching weight at which the leading alternative changes
    • Demonstrate rank reversal caused by adding a dominated alternative and explain its cause
    • Draft an evaluation summary that reports which conclusions are robust and which depend on method
    • Calculate score ranges for weighted totals from low and high criterion scores
    • Assess robustness across stakeholder weight sets by counting wins and worst-case ranks
    • Choose a rounding and presentation level that matches the precision of the inputs
    • Draft a decision summary that presents uncertainty, robustness and the remaining trade-off clearly
  9. Module 9. Technical feasibility, performance trade-offs, reliability and sustainability

    • 1. Technical feasibility and performance trade-offs · about 55 min
    • 2. Reliability, availability and maintainability in value decisions · about 55 min
    • 3. Sustainability and whole-life carbon without compromising required performance · about 55 min
    Learning outcomes
    • Assess a value proposal against seven feasibility dimensions and record a pass, conditional pass or fail for each
    • Distinguish mandatory constraints (pass or fail gates) from tradeable performance above a threshold
    • Calculate the net capital effect of a proposal including transport, lifting and coordination costs
    • Justify a conditional recommendation by naming the evidence that would close each open condition
    • Calculate inherent availability from MTBF and MTTR and convert it into expected downtime hours per year
    • Calculate system availability for series, parallel and k-of-n arrangements assuming independent failures
    • Compare two redundancy configurations on availability, capital and life-cycle maintenance cost
    • Explain the limits of MTBF data, including constant failure rate and common-cause assumptions
    • Calculate operational and embodied carbon for two alternatives using stated factors and units
    • Combine carbon and life-cycle cost into a cost per tonne of carbon dioxide equivalent avoided
    • Identify sustainability proposals that would breach safety, security or mandatory performance and reject them with a reason
    • Draft a sustainability statement for a value proposal that states factors, sources, assumptions and limits
  10. Module 10. Proposal development, stakeholder negotiation and executive presentation

    • 1. Developing proposals traceable from function to recommendation · about 55 min
    • 2. Stakeholder negotiation for value proposals · about 55 min
    • 3. Executive presentation and decision records · about 55 min
    Learning outcomes
    • Draft a value proposal that traces each claim back to a need, a function and an evaluation result
    • Classify proposals in a package as independent, mutually exclusive or interacting
    • Calculate a package total that removes double counting between interacting proposals
    • Justify the confidence level stated for a proposal from the quality of its evidence
    • Distinguish stakeholders' stated positions from their underlying interests in a value negotiation
    • Calculate the effect of negotiated options on a proposal package's capital and NPV
    • Draft conditions of approval that convert an objection into a measurable, owned requirement
    • Evaluate a negotiated agreement against the study's mandatory constraints and ethics
    • Draft a one-page executive decision brief that leads with the decision requested
    • Present uncertainty to executives using ranges, break-even values and scenarios
    • Record a value decision with reason, approved value, conditions, owner and follow-up date
    • Distinguish approve, approve with conditions, defer and reject, and choose the right one for a given situation
  11. Module 11. Implementation governance, change integration, benefits tracking and audit evidence

    • 1. Implementation governance and change integration · about 55 min
    • 2. Benefits tracking: baselines, measurement and attribution · about 55 min
    • 3. Audit evidence and post-implementation review · about 55 min
    Learning outcomes
    • Design a governance structure for approved value proposals with named roles, cadence and escalation
    • Explain how an approved value proposal enters project change control and updates the baselines
    • Calculate value erosion on an approved proposal and apply a value tolerance to decide whether to escalate
    • Draft implementation actions with owners, dates, dependencies and evidence
    • Select a baseline type (historical, modelled or as-designed) suitable for a given benefit
    • Calculate a realized saving by adjusting the baseline for weather and occupancy
    • Estimate the benefit attributable to an intervention using a comparison group
    • Record forecast, realized and verified value correctly in the PVology Value realization ledger
    • Assess value ledger entries against five evidence qualities: sufficient, relevant, reliable, timely and traceable
    • Identify and correct common evidence defects, including missing baselines, wrong stage and lack of independence
    • Recalculate a realized value from corrected evidence
    • Draft a post-implementation review that explains differences between forecast and realized value
  12. Module 12. Advanced PVology study simulation and professional value capstone

    • 1. Guided simulation: a complete value study in PVology Value · about 60 min
    • 2. Capstone brief, rubric and a fully worked model answer · about 75 min
    • 3. Self-review and common mistakes in advanced value studies · about 55 min
    Learning outcomes
    • Configure a formal value study in PVology Value with an approved charter, team and information requests
    • Record functions with cost allocations, worth, class and FAST links, and interpret the wording check and value index
    • Enter life-cycle cost items for a baseline and an alternative and reconcile the panel's present value and payback with a hand calculation
    • Record a decision, implementation actions and realization ledger entries that form a complete audit trail
    • Plan a capstone value study that meets every deliverable in the brief
    • Apply the five-criterion rubric to judge the quality of a value study submission
    • Calculate life-cycle cost, sensitivity and break-even values for competing alternatives in a model answer
    • Justify a recommendation that preserves every mandatory constraint and defines measurable benefits
    • Identify common technical and ethical mistakes in a draft value study
    • Correct value index, discounting and package arithmetic errors in a worked draft
    • Apply a structured self-review to your own capstone before submission
    • Explain how to respond when a sponsor asks for a claim the evidence does not support

Capstone: Facilitate and document a complete value study with a traceable recommendation, sensitivity analysis, implementation roadmap and measurable benefits, without compromising mandatory safety, security or performance constraints.

Certification exam

90 questions in 150 minutes; provisional pass mark 70%. Questions are scenario-based drawn from a private, reviewed bank. Results stay provisional until academy review. These are PVology assessment policies.

Exam blueprint
DomainShare of questions
Study design and facilitation15%
Advanced functions and cost/worth25%
Financial and uncertainty analysis25%
Alternatives and proposals20%
Implementation and benefits15%

Across the domains, about 65% of questions test professional knowledge, 20% applied tools and 15% PVology concepts.