Reference no: EM134006279 , Length: Word Count:2500

Engineering Risk Management

Assessment - Technology Report and Presentation

Learning Outcome 1: Develop a systematic risk management approach to strategically and operationally identify, evaluate, analyse, manage and govern risks in an engineering context.

Learning Outcome 2: Implement a risk management approach in engineering practice workplace situations. No AI shortcuts — Get expert assignment help from real, qualified tutors today.

Learning Outcome 3: Assess and apply methodologies and tools to improve safety, reliability and to reduce hazards.
Develop risk management plans for engineering projects and systems in accordance with appropriate risk management standards.

Learning Outcome 4: Consider and be able to adapt technologies and innovative ideas to improve risk management processes.

Assessment Overview
This assessment requires students to conduct a technological risk evaluation by applying two structured risk analysis techniques: Decision Tree Analysis (DTA) and Event Tree Analysis (ETA). The analysis must be based on two significant process-based risks that were identified and prioritised in the risk register from assessment 2.

The objective of this assessment is to critically analyse how these risks impact the organisation's operations, evaluate risk control effectiveness, and use structured methodologies to make data-driven risk management decisions.

This is a group-based assessment, and the final submission will consist of a formal group report along with a presentation. It is expected that students adhere to academic standards in preparing their submissions, ensuring proper research, structured analysis, and referencing.

Your learning facilitator is available to provide guidance as needed in structuring your response and applying risk analysis methodologies.

Assessment Requirements and Instructions
To successfully complete this assessment, you must conduct an in-depth analysis of two significant process-based risks identified in Assessment 2's risk register. The analysis will be structured using the following risk evaluation methodologies.

Identification and Justification of Significant Process-Based Risks

Students must select two process-based risks from the risk register in assessment 2, ensuring they are categorised as significant based on their likelihood, consequences, and priority level. A detailed discussion should explain why these risks are considered significant, including their potential impact on operations and organisational objectives. The discussion should establish the context in which these risks exist, referring to the case study and industry-specific factors. The rationale for selecting these two risks should be emphasised, focusing on their strategic importance and priority ranking in the risk register.

Application of Decision Tree Analysis

The decision tree analysis is used to model decision-making scenarios by evaluating multiple possible outcomes and their associated probabilities.

For each of the two selected risks, the decision tree analysis should include:

A clearly defined decision must be made regarding risk management.
Two significant process-based risks are treated as option A and option B in the decision-making model.
Two expected scenarios for each risk, considering one opportunity scenario that assumes the effective implementation of risk controls and successful mitigation strategies and one deviation scenario where risk controls fail or are ineffective, leading to a negative outcome.
An assessment of the likelihood of each scenario occurring using qualitative or quantitative probability estimation.

The determination of the expected outcome for each scenario by analysing the potential impact on the organisation.
The identification of the best outcome using decision tree logic, ensuring that recommendations align with risk management objectives and the organisation's strategic priorities.
A graphical representation of the decision tree should be included to illustrate the risk pathways and decision outcomes.

Application of Event Tree Analysis

The event tree analysis is a forward-looking risk evaluation tool that examines the effectiveness of risk controls in mitigating the consequences of a process-based risk.

For each of the two selected risks, the event tree analysis should include:

An assessment of how risk controls function or fail in mitigating the risk consequences.
An event sequence analysis that starts with the initial risk event and maps out how different control measures affect the risk outcome.
A comparison of functioning versus non-functioning risk controls showing how different scenarios evolve depending on the success or failure of control mechanisms.
A discussion on the significance and priority of these risks based on their classification in the risk register.
An evaluation of the probability and impact of various outcomes depending on how controls respond to the risk event.

A visual representation of the event tree should be included, illustrating branching pathways that depict the progression of risk events based on control effectiveness.

Report Structure

The final submission must be structured as a formal technical report, following professional and academic standards. The report must be well-organised, analytical, and supported by relevant evidence, ensuring clarity and logical flow.

Executive Summary

The executive summary should provide a high-level overview of the report. It should briefly outline the purpose of the assessment, summarise the key risks analysed, explain the methodologies applied (decision tree analysis and event tree analysis), and highlight the main findings and recommendations. The summary should be concise, factual, and free of excessive technical details.

Table of Contents

A structured list of all sections and subsections, including page numbers. The table of contents should be automatically generated to maintain consistency and easy navigation.

Introduction

The introduction should provide background information on the organisation in the case study, setting the context for the analysis. It should define the purpose and objectives of the risk evaluation report, explaining its relevance to engineering risk management. The introduction should also establish the significance of the risks being analysed and outline the methodologies (decision tree analysis and event tree analysis) that will be used in the assessment.

Risk Identification and Justification

This section should identify the two significant process-based risks selected from assessment 2's risk register. It should explain why these risks were prioritised based on their likelihood, consequences, and potential impact on the organisation. The discussion should provide a comprehensive justification for selecting these risks, referencing risk management frameworks and case study details.

Decision Tree Analysis Application

This section should present the decision tree analysis methodology applied to each of the two selected risks. It should clearly define the decision-making process, outline possible risk scenarios, and analyse the probability and impact of different outcomes. The discussion should include a graphical representation of the decision tree and a justification of the recommended course of action.

Event Tree Analysis Application

This section should present the event tree analysis methodology, evaluating how risk controls function in mitigating the consequences of the selected risks. It should map out various risk response pathways and discuss the effectiveness of existing risk controls. A visual event tree diagram should be included, demonstrating how different risk control mechanisms influence the outcome of the risk event.

Conclusion

The conclusion should summarise the key findings of the analysis, emphasising the most critical risks, their potential impact, and the effectiveness of risk controls. It should restate the importance of structured risk evaluation techniques in engineering risk management.

Recommendations

This section should propose actionable recommendations based on the findings from the decision tree analysis and event tree analysis. It should outline practical steps for improving risk mitigation strategies, optimising risk control effectiveness, and enhancing decision-making processes. The recommendations should be realistic, evidence-based, and aligned with industry best practices.

References

The references section should list all sources cited in the report, following APA referencing style. All academic and industry sources, including risk management frameworks, engineering risk evaluation methodologies, and case study references, should be properly cited.

Appendices

The appendices should include supplementary materials such as risk registers, raw data, additional decision tree and event tree diagrams, and any relevant supporting documents.

Presentation Component
In addition to the written report, each group must deliver a presentation summarising their key findings. The presentation should cover the significance of the selected risks and why they were prioritised, the decision tree analysis explaining the risk pathways and recommended decisions, the event tree analysis demonstrating how risk controls function in mitigating risk consequences, and the overall findings and recommendations for improving risk management practices.

The presentation should be concise, engaging, and well-structured, incorporating visual elements such as diagrams, charts, and structured analysis summaries. Each presentation should be no longer than 10 minutes.

Subject Learning Outcomes (SLOs):
This assessment aligns with the following SLOs:

Develop a systematic risk management approach to identify, evaluate, analyse, manage, and govern risks in an engineering context.
Implement a risk management approach in workplace situations related to engineering practice.
Apply methodologies and tools to improve safety, reliability, and reduce hazards.
Develop risk management plans for engineering projects and systems in line with risk management standards.
Adapt technologies and innovative ideas to enhance risk management processes.