Strategic Project Management Plan for the Innovative Engineering and Construction Centre
Assignment Brief
Assignment: Project Management Practice
Word: 2250
Referencing: Harvard style
Assessment Task Details and Instructions
Key features of the development to note include:
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6 storey, 21,000m2 main building including two 250 seat lecture theatres.
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30 seminar rooms, a central catering facility, coffee shop styled area, office accommodation for academic and administrative staff and student support areas.
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2 storey 5,000m2 research centre providing specialist construction and engineering laboratory facilities.
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4 storey 8,000m2 central learning centre, providing student services including open access rooms, silent study areas, group study rooms and a library facility.
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6 acres of land fitted site cabins and all needed infrastructure of construction of live projects by the students. Assessment Brief Form 9
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A purpose-built factory for the manufacture of battery that can be used for phones and cars.
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External works including infrastructure development.
NWSA require that the project achieves and excellent BREEAM environmental rating. The clients desire that offsite construction techniques is employed on the project however, they require a strong justification and feasibility of its use on the project.
There is a great potential for the project to improve the economy of the area but there are several oppositions due to the environmental impact the project poses on the area. The consultants are expected to carry out feasibility studies on the project which will not only involve technical feasibility but also take account of environmental, economic and political and such other factors that would influence stakeholder and risk management.
Sample Answer
Strategic Project Management Plan for the Innovative Engineering and Construction Centre
Introduction
This report provides a strategic response to the proposed development of an Innovative Engineering and Construction Centre (IECC) in the Horwich area of Greater Manchester. The project, led by the North West Strategic Alliance (NWSA), aims to create a regional hub for higher apprenticeships, engineering innovation, and research collaboration among partner universities and colleges. As the appointed Project Management Consultant, my responsibility is to assess the project’s risk management framework, evaluate value management strategies, and propose a robust quality management plan.
Given the project’s complexity, environmental implications, and the political and economic sensitivity surrounding large-scale developments, this report adopts a holistic approach, combining theoretical insights from project management literature with practical recommendations for managing risks, achieving value for money, and maintaining quality throughout the project lifecycle.
Risk Management Evaluation
Risk management is a critical component of modern project management. According to the Project Management Institute (PMI, 2021), effective risk management involves the systematic process of identifying, analysing, and responding to project risks. For the IECC project, risks stem from environmental opposition, cost uncertainties, offsite construction feasibility, and stakeholder alignment.
Risk Management Process
The process will follow five key stages: identification, assessment, analysis, response planning, and monitoring. This approach aligns with ISO 31000:2018, which emphasises continuous risk evaluation throughout the project lifecycle. The project will adopt both qualitative and quantitative methods, including risk matrices and probability-impact assessments.
Risk Identification and Register
Twelve major risks have been identified based on technical, environmental, financial, and stakeholder factors:
Risk ID | Risk Description | Probability | Impact | Response Strategy |
R1 |
Delays in planning approval due to environmental opposition |
High |
High |
Engage local councils early; conduct Environmental Impact Assessments (EIA) |
R2 |
Cost overruns due to inflation and supply chain volatility |
Medium |
High |
Use cost control software and contingency planning |
R3 |
Public opposition to perceived environmental harm |
High |
Medium |
Transparent communication strategy and community engagement |
R4 |
Inefficiencies in offsite construction techniques |
Medium |
Medium |
Conduct pilot tests and partner with experienced modular contractors |
R5 |
Labour shortages in specialised construction trades |
Medium |
High |
Early recruitment planning and workforce training with local colleges |
R6 |
Political or funding changes impacting project continuity |
Low |
High |
Secure long-term funding agreements and stakeholder commitments |
R7 |
Poor stakeholder coordination between multiple academic partners |
High |
Medium |
Establish a Project Steering Committee and regular review meetings |
R8 |
Breach of health and safety regulations |
Low |
High |
Implement strict compliance and safety training programmes |
R9 |
Failure to achieve BREEAM ‘Excellent’ rating |
Medium |
High |
Integrate sustainability specialists during design phase |
R10 |
Delays in offsite component delivery |
Medium |
Medium |
Use digital scheduling tools and maintain supplier flexibility |
R11 |
Poor integration between research, academic, and construction facilities |
Medium |
Medium |
Develop design charrettes and multi-disciplinary workshops |
R12 |
Quality assurance failures leading to rework or delays |
Low |
High |
Apply continuous inspection and quality control checkpoints |
Risk Analysis and Mitigation
The risk register will be supplemented by a probability-impact matrix to visualise critical risks. R1, R2, and R9 are categorised as “high priority” due to their combined effect on cost, schedule, and environmental sustainability. Mitigation will involve early planning permissions, proactive budgeting with a 10% contingency reserve, and embedding sustainability consultants into the project design team.
Continuous risk monitoring will be supported through monthly reviews and a digital project dashboard, ensuring transparency and real-time response to emerging threats.
Value Management Analysis
Value Management (VM) aims to optimise project outcomes by balancing function, cost, and performance (Kelly et al., 2014). It involves systematic evaluation of alternatives to ensure the project delivers maximum value for money (VfM). For the IECC project, VM is essential due to the complex mix of educational, research, and construction facilities within a constrained budget and environmental framework.
Application of Value Management
The VM process will follow four main stages: information, creative, evaluation, and implementation. During the information stage, the project team identifies client needs, which include innovation, sustainability, and educational excellence. The creative stage involves exploring alternative materials and offsite construction options. The evaluation stage assesses cost-benefit outcomes, while the implementation stage ensures selected solutions are integrated into the design and delivery plan (Male et al., 2007).
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