Improving Risk Estimates Through Iterative Feedback

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Summary

Improving risk estimates through iterative feedback means refining predictions about potential risks by repeatedly updating your methods and assumptions based on new information and input, making them more reliable over time. This approach uses cycles of learning, feedback, and adjustment to make risk assessments more accurate, whether or not you have complete data.

  • Use expert input: Collect insights from people with relevant experience to inform your risk assessments, especially when historical data is limited.
  • Test and adjust: Regularly compare your predictions to actual outcomes and modify your approach with each round to reduce uncertainty.
  • Incorporate feedback: Invite feedback from colleagues and update your models or methods based on what you learn to strengthen future estimates.
Summarized by AI based on LinkedIn member posts
  • View profile for Anindya Longvah

    TAS | Titan | IIM C '23 | Ashoka U' 21 | MyProtein Athlete | Speaker

    72,837 followers

    Solving guestimates can come in handy at any point in your career: for case competitions, consulting interviews, and even later down your career. Practice these techniques with complex, multi-faceted problems and gradually integrate more sophisticated methods like Monte Carlo simulations and regression analysis. With time and practice, your ability to deconstruct and analyze intricate real-world problems will improve dramatically. Use this guidebook as a starting point and refine your process with each new problem you tackle. Some extra tips: ✅Advanced Uncertainty Quantification Monte Carlo Simulations: Run thousands of iterations with randomized inputs to generate a distribution of outcomes. This not only gives you an expected value but also a confidence interval. Fuzzy Logic: When precise probabilities aren’t available, apply fuzzy logic to handle ambiguous data and provide a range of likely values. ✅Sensitivity Analysis & Variance Decomposition Identify Key Drivers: Use sensitivity analysis to determine which assumptions have the largest impact on your final estimate. Techniques like variance-based decomposition can quantify this effect. Scenario Testing: Create best-case, worst-case, and base-case scenarios to see how changes in critical inputs influence the overall result. This helps in understanding the risk and uncertainty in your model. ✅Dimensional Analysis & Scaling Laws Unit Consistency: Always verify that your calculations make sense dimensionally. This serves as a built-in error check and ensures that different components of your estimate are comparable. Scaling Relations: Leverage known scaling laws or dimensionless numbers to connect small-scale data with larger, more complex systems. ✅Data Fusion & Cross-Validation Multiple Data Sources: Combine insights from surveys, historical data, industry reports, and expert opinions. Cross-referencing these sources can help pinpoint where your assumptions are most reliable. Benchmarking: Validate your estimates against known benchmarks or historical trends. This can highlight potential biases and guide you in recalibrating your model. ✅Continuous Iteration & Back-Casting Historical Comparison: Test your estimation method by applying it to past events (back-casting) where you already know the outcome. Adjust your approach based on these tests. Iterative Improvement: Don’t settle on your first model. Iterate through multiple versions, improving assumptions and incorporating new insights each time. For a change, I've used a carousel to explain the key points of solving such problems and it can help you a lot if you're an MBA students and are prepping for placements and/or case competitions. Let me know in the comments below if you prefer this style of posts over simple text based ones! #consulting #guesstimates #prep #placements #mba #career #iim #management #mbb #linkedin #india

  • View profile for Fernando Hernandez

    Founder @ iziRisk| MBA in Finance

    32,197 followers

    I have no data for Monte Carlo simulation! Like many people in the world of risk management, an expert once told me something very common: “We don’t have reliable historical data to run quantitative models. So we rely on evaluators’ judgment and on a few past events.” This argument is often repeated and ends up becoming a vicious cycle: “We don’t run simulations because we don’t have data. And we don’t have data because we don’t run simulations.” Here’s my step-by-step response: 1. It’s a valid concern… but incomplete. Yes, it’s true that sometimes we don’t have complete or well-structured databases. But that doesn’t mean data doesn’t exist. The data is in the minds of the experts. They’re not numbers in a table, but experiences, judgments, and intuitions used every time someone rates a risk on a heat map. When someone says a risk is “very likely” or its impact is “severe,” they are using information based on what they’ve seen, lived through, or learned. And that, in itself, is a form of data. 2. There are tools made for exactly this situation. There are probability distributions that don’t require massive databases to work. Some, like the PERT or Triangular distribution, only need the expert to answer: What’s the worst-case scenario? What’s the most likely value? What’s the best-case scenario? With those three values, a distribution can be built that reflects the potential variability of the risk. And the best part: there are well-developed methods to build these distributions rigorously, minimizing bias or judgment errors. ⚠️ Note: Cognitive biases don’t just appear when using distributions—they’re also present when using heat maps. The key is recognizing them and applying tools to reduce their effect. 3. We can improve over time—thanks to Bayes. Bayes’ theorem gives us a solid foundation to refine our estimates as we gather new data. In simple terms: we start with what we know (or think we know), and we improve as we learn more. With every new data point, our estimates become more accurate. 4. A distribution is always better than a fixed cell. When we place a risk in a cell on a heat map, we’re giving it a single value—as if there were no uncertainty or margin for error. But we all know the real world doesn’t work like that. On the other hand, if we use a probability distribution, we give the risk the freedom to vary within a realistic range. We’re not locking it in a rigid box. This way, we represent uncertainty more effectively—and make more informed decisions. Want to take the next step? Contact me. I’ll show you how to move beyond those limiting heat maps and toward a deeper, more quantifiable risk assessment that actually supports your decision-making.

  • View profile for Abraham Udu

    Risk & Compliance: DCP CAMS CFCS GRCP GRCA ESGS ICEP IRMP CRCMP CISRCP| AI Native: AIMS IAIP AISG| Audit & Assurance: ACA CSOE IAAP LSSGB| FinTech & Web3: CCI CPM CDAS CMSA FTIP TRFC| Cybersecurity: CC ACP IDPP SSCP ISMS

    23,246 followers

    💡 Continuous Learning in Compliance Risk Management is very important for ongoing risk planning, monitoring and mitigation. This Agile process makes for continuous improvement of the compliance program via effective feedback loops. This entails: 1. ✅️ Learning from Experience: Compliance risk management involves reflecting on past decisions to understand their outcomes and implications on regulatory adherence. 2. ✅️ Identification of Success Factors: Assess successful compliance initiatives or responses to regulatory changes to identify effective strategies and practices. 3. ✅️ Analysis of Challenges: Evaluate instances where compliance efforts may have fallen short, examining root causes or gaps in regulatory adherence. 🛡 Future Strategies: 1. Iterative Approach: Embrace a continuous improvement cycle by adapting compliance strategies based on lessons learned and evolving regulatory landscapes. 2. Flexibility in Approach: Remain adaptable to new regulations, industry standards, and compliance requirements, adjusting strategies to mitigate emerging risks effectively. 3. Feedback Integration: Solicit feedback from compliance officers, legal advisors, and regulatory bodies to enhance compliance frameworks and mitigate regulatory risks. Case Study: In a regulatory environment prone to frequent updates and changes, a compliance team navigates challenges in maintaining adherence to evolving laws: - Reflection: They conducted a thorough review of compliance initiatives in response to recent regulatory changes or audits, identifying areas of strength and improvement. - Adaptation: They utilized insights gained from compliance audits and feedback to refine policies, procedures, and training programs, ensuring alignment with updated regulatory requirements. - Continuous Learning: They employed regular updates to compliance frameworks and ongoing training sessions to equip employees with the knowledge and skills to navigate regulatory complexities effectively. Continuous learning in compliance risk management fosters adaptability and enhances resilience in meeting regulatory obligations. By reflecting on compliance decisions, identifying success factors, and adapting strategies based on regulatory insights, organizations can strengthen their compliance frameworks and mitigate risks effectively. Integrating feedback from compliance professionals and regulatory authorities supports proactive compliance management, ensuring sustained adherence to evolving regulatory landscapes and promoting a culture of compliance across the organization. #ConnectedCompliance

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