PMI PMI-RMP Exam With Confidence Using Practice Dumps

The project manager should apply an iterative approach to risk identification, which involves continuous risk identification throughout the project lifecycle. This will help to identify andaddress new risks that may arise during the project.

According to the PMBOK® Guide, risk identification is the process of determining which risks may affect the project and documenting their characteristics. It is an iterative process because new risks may evolve or become known only as the project progresses through its life cycle. There are many techniques available for risk identification and assessment, such as brainstorming, interviews, checklists, SWOT analysis, cause and effect diagrams, etc. The project manager should apply an iterative approach to risk identification to ensure that all relevant risks are captured and updated throughout the project. The project manager should also involve the project team and other stakeholders in the risk identification process to obtain their input and perspectives.

The other options are not valid for the next step after explaining the importance of risk management to the team:

Review assumptions and constraints around risks: This is a technique for risk identification, but it is not the only one. The project manager should use a combination of techniques to identify risks, not just focus on one aspect. Also, reviewing assumptions and constraints is not the same as applying an iterative approach, which implies repeating the risk identification process at regular intervals or when changes occur.

Develop the risk response plans for identified risks: This is a step in the Plan Risk Responses process, which comes after the Perform Qualitative Risk Analysis and Perform Quantitative Risk Analysis processes. The project manager should not develop the risk response plans before identifying and analyzing the risks.

Determine the likelihood and impact of the risks: This is a step in the Perform Qualitative Risk Analysis process, which comes after the Identify Risks process. The project manager should not determine the likelihood and impact of the risks before identifying them.

References: PMBOK® Guide1, Risk Management Professional (PMI-RMP)® Cert Guide

 A decision tree analysis is a tool that helps to evaluate and select the best option among different alternatives based on costs and probabilities. A decision tree analysis uses a graphical representation of a decision problem, where each node represents a decision point, a chance event, or an outcome. The branches of the tree show the possible choices, events, or consequences that can occur at each node. The end nodes of the tree show the expected value or payoff of each option, which is calculated by multiplying the probability and the cost or benefit of each outcome. A decision tree analysis can help to compare the expected values ofdifferent options and choose the one that maximizes the benefit or minimizes the cost1. Adecision tree analysis can also help to incorporate uncertainty and risk into the decision making process, as it shows the range of possible outcomes and their likelihoods2. Therefore, the project manager should perform a decision tree analysis to evaluate and select the best option based on costs and probabilities for a mega facility development project. Performing a FMECA fault tree analysis, conducting a sensitivity analysis, or conducting an analytic hierarchy process are not the best options to evaluate and select the best option based on costs and probabilities. A FMECA fault tree analysis is a tool that helps to identify and analyze the potential causes and effects of failures in a system or process. It uses a graphical representation of a failure event, where each node represents a basic or intermediate event that contributes to the failure. The branches of the tree show the logical relationships between the events, using AND or OR gates. A FMECA fault tree analysis can help to calculate the probability and severity of failures, as well as to prioritize and mitigate the risks3. However, a FMECA fault tree analysis does not help to compare different options or alternatives, as it focuses on a single failure scenario. Conducting a sensitivity analysis is a tool that helps to measure how the uncertainty in the input variables of a model affects the output or outcome of the model. It uses a graphical or numerical representation of the relationship between the input and output variables, showing how the output changes when the input changes. A sensitivity analysis can help to identify the most critical or influential variables, as well as to test the robustness or reliability of the model4. However, a sensitivity analysis does not help to compare different options or alternatives, as it focuses on a single model or option. Conducting an analytic hierarchy process is a tool that helps to evaluate and select the best option among different alternatives based on multiple criteria. It uses a mathematical method of pairwise comparison, where each alternative is compared to each other in terms of each criterion. The results of the comparisons are then aggregated into a matrix, which shows the relative importance or preference of each alternative. An analytic hierarchy process can help to rank the alternatives and choosethe one that best satisfies the criteria5. However, an analytic hierarchy process does not help to incorporatecosts and probabilities into the decision making process, as it relies on subjective judgments and preferences. References: 1, 2, 3, 4, 5.

A decision tree analysis is a quantitative risk analysis technique that helps evaluate and select the best option based on costs and probabilities. It visually represents different decision paths and their associated probabilities, allowing the project manager to compare and select the most appropriate option for the project.

In this situation, the departure of a key project resource was an anticipated risk, and a transition plan was established as a response. However, implementing this plan has introduced new risks, known as secondary risks, which may impact the completion dates of other project-related tasks. According to PMI's risk management framework, it's essential to address these secondary risks in alignment with the predefined risk management plan. This involves assessing the new risks' probabilities and impacts, determining appropriate response strategies, and updating the risk register accordingly. By systematically managing secondary risks as outlined in the risk management plan, the project manager can mitigate potential adverse effects on the project's schedule and objectives.

PMI Risk Management Study Guide References:

The PMI-RMP Exam Preparation Study Guide highlights the necessity of managing secondary risks, stating that "secondary risks should be identified, analyzed, and planned for in the same manner as primary risks, ensuring that all potential threats to project objectives are adequately addressed."