Paper: arXiv 2405.20679

Authors: Fernando Acebes, José Manuel González-Varona, Adolfo López-Paredes, Javier Pajares

Abstract

The project managers who deal with risk management are often faced with the difficult task of determining the relative importance of the various sources of risk that affect the project. This prioritisation is crucial to direct management efforts to ensure higher project profitability. Risk matrices are widely recognised tools by academics and practitioners in various sectors to assess and rank risks according to their likelihood of occurrence and impact on project objectives. However, the existing literature highlights several limitations to use the risk matrix. In response to the weaknesses of its use, this paper proposes a novel approach for prioritising project risks. Monte Carlo Simulation (MCS) is used to perform a quantitative prioritisation of risks with the simulation software MCSimulRisk. Together with the definition of project activities, the simulation includes the identified risks by modelling their probability and impact on cost and duration. With this novel methodology, a quantitative assessment of the impact of each risk is provided, as measured by the effect that it would have on project duration and its total cost. This allows the differentiation of critical risks according to their impact on project duration, which may differ if cost is taken as a priority objective. This proposal is interesting for project managers because they will, on the one hand, know the absolute impact of each risk on their project duration and cost objectives and, on the other hand, be able to discriminate the impacts of each risk independently on the duration objective and the cost objective.

Complexity vs Empirical Score

  • Math Complexity: 3.5/10
  • Empirical Rigor: 5.5/10
  • Quadrant: Street Traders — practical and empirical, lighter on theory

Why this score: The paper provides a practical quantitative alternative to qualitative risk matrices using Monte Carlo Simulation in project risk management. While the mathematical formulations are straightforward standard statistical distributions, the proposed empirical methodology offers a novel and practical approach to disentangling cost and schedule impacts for risk prioritisation.

Research Flowchart

  flowchart TD
    A["Goal: Address risk matrix limitations with quantitative risk prioritization"] --> B["Input: Define project activities, risk probability, and cost/duration impacts"]
    B --> C["Process: Run Monte Carlo Simulation (MCS) via MCSimulRisk"]
    C --> D["Analysis: Assess individual risk impacts on total cost vs. duration"]
    D --> E["Outcome: Differentiated risk ranking providing absolute metrics for cost & duration"]

Cited References (60)

  1. Quantitative Analysis of Project Risks (2013) — link
  2. Stochastic earned value analysis using Monte Carlo simulation and statistical learning techniques — → 2406.02589
  3. Risk Matrix Integrating Risk Attitudes Based on Utility Theory (2015) — link
  4. Further Thoughts on the Utility of Risk Matrices (2013) — link
  5. Some Limitations of Qualitative Risk Rating Systems (2005) — link
  6. Epistemic uncertainty quantification techniques including evidence theory for large-scale structures (2004) — link
  7. Project risk analysis and management—PRAM the generic process (1997) — link
  8. Market risk in commodity markets: a VaR approach (2003) — link
and 52 more
  1. Fuzzy risk matrix (2008) — link
  2. Treatment of uncertainties in space nuclear risk assessment with examples from Cassini mission applications (1999) — link
  3. Engineering and contracting projects: A value at risk based approach to portfolio balancing (2007) — link
  4. Value-at-Risk Prediction: A Comparison of Alternative Strategies (2005) — link
  5. Improving risk matrices: the advantages of logarithmically scaled axes (2011) — link
  6. Sensitivity analysis in conjunction with evidence theory representations of epistemic uncertainty (2006) — link
  7. Management of construction cost contingency covering upside and downside risks (2014) — link
  8. Structural safety–issues and progress (2004) — link
  9. A new approach for project control under uncertainty. Going back to the basics (2013) — link
  10. Assessing and managing important risks (1999) — link
  11. Towards a better modelling and assessment of construction risk: Insights from a literature review (2013) — link
  12. Recommendations on the use and design of risk matrices (2015) — link
  13. On the origin of PCDS – (Probability consequence diagrams) (2014) — link
  14. Measuring Value‐at‐Risk in Project Finance Transactions (2007) — link
  15. A new approach for quantitative risk analysis (2013) — link
  16. Can Public Health Risk Assessment Using Risk Matrices Be Misleading? (2015) — link
  17. What’s Wrong with Risk Matrices? (2008) — link
  18. 1,1‐Dicyano‐4‐[4‐(diethylamino)phenyl]buta‐1,3‐dienes: Structure–Property Relationships (2012) — link
  19. Some extensions on risk matrix approach (2010) — link
  20. On the assessment of uncertainty in risk diagrams (2015) — link
  21. Estimation of the Escalation Factor in Construction Projects Using Value at Risk (2016) — link
  22. Value-at-Risk vs. Conditional Value-at-Risk in Risk Management and Optimization (2008) — link
  23. How to Design Rating Schemes of Risk Matrices: A Sequential Updating Approach (2017) — link
  24. Risk management standards for project management (2017) — link
  25. The risk matrix: uncertain results? (2017) — link
  26. Value-at-Risk Model Analysis of Taiwanese High-Tech Facility Construction (2017) — link
  27. The construction dust-induced occupational health risk using Monte-Carlo simulation (2018) — link
  28. Logarithmic scales in ecological data presentation may cause misinterpretation (2018) — link
  29. Improving Project Budget Estimation Accuracy and Precision by Analyzing Reserves for Both Identified and Unidentified Risks (2018) — link
  30. Time and cost contingency management using Monte Carlo simulation (2019) — link
  31. From Risk Matrices to Risk Networks in Construction Projects (2019) — link
  32. Data Analytics for Engineering and Construction Project Risk Management (2019) — link
  33. Risk Assessment in Bridge Construction Projects in Iran Using Monte Carlo Simulation Technique (2019) — link
  34. Applying and Assessing Performance of Earned Duration Management Control Charts for EPC Project Duration Monitoring (2020) — link
  35. Mean-conditional value at risk model for the stochastic project scheduling problem (2020) — link
  36. Introducing an Entrepreneurial Project Management Model (2020) — link
  37. Multivariate control charts using earned value and earned duration management observations to monitor project performance (2020) — link
  38. Prioritizing risks in sustainable construction projects using a risk matrix-based Monte Carlo Simulation approach (2020) — link
  39. Risk assessment of construction projects using Monte Carlo simulation (2021) — link
  40. Estimation of electricity cost of wind energy using Monte Carlo simulations based on nonparametric and parametric probability density functions (2021) — link
  41. Problems with Risk Matrices Using Ordinal Scales (2021) — link
  42. How People Understand Risk Matrices, and How Matrix Design Can Improve their Use: Findings from Randomized Controlled Studies (2021) — link
  43. A TOPSIS—Risk Matrix and Monte Carlo Expert System for Risk Assessment in Engineering Projects (2021) — link
  44. The risk matrix approach: a helpful tool weighing probability and impact when deciding on preventive and diagnostic interventions (2022) — link
  45. The Risk of Using Risk Matrices (2014) — link
  46. The Data-Driven Project Manager (2018) — link
  47. Impact of aleatoric, stochastic and epistemic uncertainties on project cost contingency reserves (2022) — link
  48. Do colored cells in risk matrices affect decision‐making and risk perception? Insights from randomized controlled studies (2023) — link
  49. A Matlab-Based Educational Tool for Quantitative Risk Analysis (2023) — link
  50. A unique Markov chain Monte Carlo method for forecasting wind power utilizing time series model (2023) — link
  51. Appropriate budget contingency determination for construction projects: State-of-the-art (2023) — link
  52. Análisis cuantitativo de riesgos utilizando “MCSimulRisk” como herramienta didáctica (2024) — link

1 of 60 cited works are in the corpus; resolved via arXiv source bundles, Semantic Scholar and OpenAlex. Corpus-wide: 2518 linked papers.