Performing Effective Project Monitoring And Risk Management ✓ Solved

Performing Effective Project Monitoring And Risk Managem

Performing Effective Project Monitoring And Risk Managem

This assignment requires developing a comprehensive project management analysis for a mobile application development project within an organization. The key tasks include identifying measurable and controllable attributes, outlining project milestones and work breakdown structure, creating a workflow model for defect inspection, analyzing stakeholder communication needs, calculating project performance metrics, planning for maintenance phase activities, and developing a risk register with risk management techniques.

Sample Paper For Above instruction

Introduction

Effective project monitoring and risk management are essential for ensuring the success of software development projects. In this context, the mobile application for a coffeemaker organization represents a significant undertaking, requiring vigilant tracking, quality control, stakeholder communication, and proactive risk handling. This paper discusses critical attributes for monitoring, project planning milestones, a detailed work breakdown structure (WBS), workflow modelling for defect detection, stakeholder communication strategies, project performance calculations, maintenance strategies, and a comprehensive risk register with management techniques.

Attributes of the Mobile Application Development Project

To effectively monitor and control the mobile application's development, several key attributes can be measured:

  1. Schedule Variance (SV): This measures the deviation from the planned schedule, indicating whether project activities are ahead or behind schedule. Schedule variance is critical because delays can impact market entry and stakeholder satisfaction.
  2. Cost Variance (CV): This compares the budgeted cost of work performed with the actual cost, highlighting budget overruns. Managing cost variance is crucial for project viability and resource allocation.
  3. Scope Creep: Tracking changes or additions outside the initial scope helps maintain project focus and prevents scope creep that can lead to delays and budget issues.
  4. Quality Defects: Monitoring defect rates during development and acceptance ensures the product meets quality standards, reducing future rework and customer dissatisfaction.

Each attribute is vital because they directly influence project success, stakeholder trust, and the final product's quality. Variances signal areas needing corrective action, while managing scope creep and defect rates ensures the project stays on track and delivers a high-quality mobile application.

Project Plan Summary and Milestones

The project plan includes key milestones such as:

  • Project Initiation & Requirements Gathering — Week 1
  • Design Phase Completion — Week 3
  • Prototype Development — Week 6
  • Internal Testing & Quality Assurance — Week 8
  • User Acceptance Testing (UAT) — Week 10
  • Final Deployment & Go-live — Week 12

These milestones enable tracking progress, aligning team efforts, and ensuring timely project delivery. Each milestone corresponds to specific deliverables and quality gates, facilitating stage-wise evaluation.

Work Breakdown Structure (WBS)

The WBS breaks the project into manageable work packages:

  • 1. Project Management
    • 1.1. Project Planning
    • 1.2. Resource Allocation
    • 1.3. Progress Monitoring
  • 2. Requirements Gathering
    • 2.1. Stakeholder Interviews
    • 2.2. Functional & Non-functional Requirements Specification
  • 3. Design Phase
    • 3.1. UI/UX Design
    • 3.2. Architectural Design
  • 4. Development
    • 4.1. Front-end Coding
    • 4.2. Back-end Integration
  • 5. Testing
    • 5.1. Unit Testing
    • 5.2. Integration Testing
    • 5.3. User Acceptance Testing
  • 6. Deployment & Maintenance
    • 6.1. Deployment Planning
    • 6.2. Post-deployment Support

Workflow Model for Defect Detection and Inspection

The defect inspection process involves the following steps, represented visually in diagram form (created using Visio, Dia, or an open-source alternative):

  • Step 1: Prepare the acceptance criteria and testing environment.
  • Step 2: Conduct initial acceptance testing through manual and automated testing tools.
  • Step 3: Record detected defects using issue-tracking tools (e.g., Jira, Bugzilla).
  • Step 4: Classify defects based on severity and impact.
  • Step 5: Perform root cause analysis for critical defects.
  • Step 6: Resolve defects, retest, and close issues upon verification.

Defects detected during acceptance testing should be documented with detailed descriptions, reproduction steps, severity, and status updates. Reporting mechanisms include dashboards and reports shared with stakeholders. Defects may not need reporting if they are minor cosmetic issues or documented as known limitations that do not affect functionality or user experience.

Stakeholder Communication and Status Reports

Diverse stakeholders have distinct information needs:

Stakeholder Information Needed Type of Status Report
Marketing Management Progress updates, release timelines, user feedback Executive summaries and milestone reports
Software Designers & Programmers Technical requirements, bug reports, change requests Technical status reports and defect logs
Testers Test case results, defect reports, test coverage Test progress reports and defect status reports
Upper Management Project health, budget status, schedule adherence Integrated project dashboards and executive briefings

Project Performance Metrics and Interpretation

Based on control point 2 data:

  • Budget Cost of Work Performed (BCWP) = $24,000
  • Actual Cost of Work Performed (ACWP) = $27,500
  • Planned Value (PV), assumed from budget allocation — e.g., $30,000 for this control point
Cost Variance (CV):
CV = BCWP - ACWP = $24,000 - $27,500 = -$3,500 (cost overrun)
Schedule Variance (SV):
SV = BCWP - PV = $24,000 - $30,000 = -$6,000 (behind schedule)
Cost Performance Index (CPI):
CPI = BCWP / ACWP = $24,000 / $27,500 ≈ 0.87 (less than 1 indicates inefficiency)
Schedule Performance Index (SPI):
SPI = BCWP / PV = $24,000 / $30,000 = 0.80 (less than 1 indicates delay)
Estimated Actual Cost (EAC):
EAC = Budget at completion / CPI = $150,000 / 0.87 ≈ $172,414.94

These metrics reveal that the project is over budget and behind schedule, necessitating corrective actions such as resource reallocation and scope adjustment to realign with project goals.

Maintenance Phase and EV Reporting

During the maintenance phase, techniques like Work Package Tracking, Binary Tracking, and Earned Value (EV) Reporting facilitate effective change management. Each change request can be assigned to individual team members, tracked through specific work packages, and monitored via EV metrics. For example:

  • Work packages help break down maintenance tasks, enabling clear responsibility.
  • Binary tracking indicates whether a change or fix has been completed (done/not done).
  • EV reporting tracks progress based on scheduled value versus actual effort and value delivered, allowing early detection of delays or scope deviations.

Risk Register Development and Management Techniques

A risk register documents identified risks, their likelihood, impact, and mitigation strategies:

Risk Likelihood Impact Mitigation Technique Explanation
Technological Infrastructure Failure Medium High Proactive infrastructure assessment and redundant systems
Lack of Mobile Development Expertise High High Training and hiring specialized developers
Scope Creep Medium Medium Strict scope management and change control processes
Insufficient Sponsorship Low High Engage stakeholders early and secure executive sponsorship
Quality Issues Medium High Implement rigorous testing and quality assurance processes

Each risk management technique is selected based on risk severity, likelihood, and the project's context to minimize adverse effects and ensure project success.

Conclusion

Executing comprehensive project monitoring, controlling attributes, well-structured planning, defect inspection, stakeholder communication, performance measurement, maintenance strategies, and risk management significantly enhances the likelihood of delivering a successful mobile application. Applying these project management best practices aligns project efforts with organizational goals, optimizes resource utilization, and ensures high-quality deliverables.

References

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  • Hughes, B. (2018). Essential Skills for Tech Project Managers. TechRepublic.
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  • ISO/IEC/IEEE 21508:2021 – Systems and software engineering — Lifecycle processes — Project management.
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  • Graves, T. (2016). Risk Management in Software Projects. International Journal of Project Management, 34(5), 898–911.
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