UNIT 3: PROJECT MANAGEMENT (CE-703 B)
I. FOUNDATIONS OF PROJECT MANAGEMENT
What is a Project?
A project is a temporary endeavor undertaken to create a unique product, service, or result.
- Project vs. Operations: Projects are temporary and unique; Operations are permanent and repetitive.
Key Parameters of Project Management (The Triple Constraint +)
The core constraints that define a project's boundaries:
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Scope: What work must be done? (Deliverables)
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Time: How long will it take? (Schedule)
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Cost: What is the budget? (Financial Resources)
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Quality: What are the specifications/standards?
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Resources: People, equipment, materials.
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Risk: Uncertain events that could impact objectives.
Project Attributes
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Unique: One-of-a-kind outcome.
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Temporary: Defined start and end date.
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Progressive Elaboration: Details become clearer as the project progresses.
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Cross-functional: Requires skills from multiple disciplines.
Objectives of Project Management
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Primary: Deliver the project's scope on time, within budget, and to the required quality.
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Secondary: Optimize resource use, satisfy stakeholders, manage risk, capture lessons learned.
Importance of Project Management
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Ensures strategic alignment with organizational goals.
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Drives efficiency and reduces waste.
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Enhances stakeholder satisfaction through clear communication.
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Provides a competitive advantage through reliable delivery.
Project Life Cycle Stages
A generic, high-level sequence of phases:
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Initiation: Define project at a high level, develop charter, identify stakeholders.
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Planning: Establish scope, schedule, budget, and detailed plans (most critical for success).
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Execution: Coordinate people and resources to implement the plan.
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Monitoring & Controlling: Track progress, manage changes, ensure alignment with plan.
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Closing: Formal acceptance of deliverables, release resources, archive records.
[!TIP] Exam Focus: Be prepared to define each stage's key output/activity. For example, Initiation's key output is the Project Charter.
II. PROJECT PLANNING
Objectives & Significance of Planning
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Objective: To define a clear, realistic, and agreed-upon roadmap for achieving project goals.
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Significance: Reduces uncertainty, optimizes resource use, establishes a baseline for control, and is directly linked to project success. Happens primarily during the Planning phase of the life cycle.
Planning Techniques (High Priority)
1. Network Planning Models
Used for scheduling, sequencing, and identifying the critical path.
| Feature | PERT (Program Evaluation and Review Technique) | CPM (Critical Path Method) |
|---|---|---|
| Focus | Time (probabilistic) | Time & Cost (deterministic) |
| Activity Time | Three estimates: Optimistic (O), Pessimistic (P), Most Likely (M). Uses Beta distribution. | Single, deterministic estimate (most likely). |
| Use Case | R&D, New tech, high-uncertainty projects. | Construction, engineering, repetitive projects. |
| Key Output | Expected project completion time & probability. | Critical path, project duration, float. |
PERT Calculations:
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Expected Time (Te): $$\displaystyle T_e = \frac{O + 4M + P}{6} $$
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Variance (σ²): $$\displaystyle \sigma^2 = \left(\frac{P - O}{6}\right)^2 $$
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Standard Deviation (σ): $$\displaystyle \sigma = \sqrt{\sigma^2} $$ (for path, sum variances of activities on path).
CPM/PERT Common Calculations:
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Forward Pass: Calculate Earliest Start Time (EST) and Earliest Finish Time (EFT). Start at day 0.
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$$\displaystyle EFT = EST + \text{Duration} $$
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$$\displaystyle EST_{\text{next}} = \max(EFT_{\text{all predecessors}}) $$
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Backward Pass: Calculate Latest Start Time (LST) and Latest Finish Time (LFT). Start at project completion.
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$$\displaystyle LST = LFT - \text{Duration} $$
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$$\displaystyle LFT_{\text{prev}} = \min(LST_{\text{all successors}}) $$
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Float/Slack: $$\displaystyle Float = LST - EST = LFT - EFT $$
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Total Float: Available without delaying project.
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Free Float: Available without delaying successor.
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Critical Path: Path with ZERO total float. Longest path through the network. Any delay here delays the project.
2. Other Techniques
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Gantt Chart: Bar chart showing activity duration and timing. Good for progress tracking, poor for showing dependencies.
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Work Breakdown Structure (WBS): Hierarchical decomposition of total scope into manageable work packages. Deliverable-oriented.
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Milestone Chart: Shows major deliverables/events (milestones) on a timeline.
Planning Tools
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Software: MS Project, Primavera P6.
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Graphical: Network Diagrams, Histograms (resource loading), Scatter Diagrams (correlation analysis).
Project Scheduling
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Definition: The process of developing a detailed timeline for project activities.
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Types of Schedules:
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Master Schedule: Summary-level, for senior management.
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Summary Schedule: Intermediate detail, for functional managers.
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Detailed Schedule: Activity-level, for project team/foremen.
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As-Scheduled vs. As-Planned: Baseline (approved plan) vs. actual execution plan.
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[!TIP] Common Pitfall: Confusing WBS (scope decomposition) with Schedule (time sequencing). WBS comes first.
III. PROJECT EXECUTION, TEAMS & CONTROL
Role of the Project Manager
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Responsibilities: Integrate processes, lead team, manage stakeholders, control scope/schedule/cost/quality/risk.
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Leadership vs. Management: Management is about processes, plans, controls. Leadership is about vision, influence, motivation.
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Competencies: Technical, Human (interpersonal), Conceptual/Strategic.
Team Development: Tuckman's Five-Stage Model (High Priority)
Describes the typical progression of team dynamics:
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Forming: High dependence on leader, polite, unclear roles. Leader provides direction.
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Storming: Conflict, resistance, power struggles. Leader facilitates conflict resolution.
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Norming: Cohesion develops, roles clear, consensus emerges. Leader enables delegation.
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Performing: High functionality, autonomous, focus on performance. Leader delegates, monitors.
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Adjourning: Task completion, disbanding, emotional separation. Leader ensures closure, recognition.
[!TIP] Exam Focus: Be ready to list parameters/dynamics at each stage (e.g., "In Storming, conflict arises from...").
Organizational Structures
| Structure | Description | Advantages | Disadvantages |
|---|---|---|---|
| Functional | Departments by specialty (e.g., engineering, marketing). Project manager has little authority. | Efficient resource use, deep expertise, clear career path. | Slow communication, poor cross-functional integration, project priority low. |
| Matrix | Blend of functional and projectized. Resources report to both functional and project manager. | Efficient resource use, balanced focus, flexible. | Dual reporting causes conflict, power struggles. |
| Strong Matrix | PM has high authority, full-time team. | Project-focused, good communication. | Resource hoarding by functional managers. |
| Weak Matrix | PM has low authority, part-time team. | Functional expertise retained. | PM has little control, slow decisions. |
| Balanced Matrix | PM and functional manager share authority. | Fair balance of power. | Requires strong negotiation skills. |
| Projectized | Full authority to PM, team dedicated full-time. | Fast decisions, high project focus, team cohesion. | Resource duplication, poor knowledge sharing, career uncertainty post-project. |
Risk Management
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Definition of Risk: An uncertain event or condition that, if it occurs, has a positive or negative effect on project objectives.
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Risk Identification Methods:
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Brainstorming: Team-based idea generation.
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Checklists: Historical information from past projects.
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SWOT Analysis: Strengths, Weaknesses, Opportunities, Threats.
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Delphi Technique: Anonymous expert consensus (iterative questionnaires).
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Performance Measurement & Control
1. Control Charts (Statistical Process Control)
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Used to monitor quality metrics over time.
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Plots sample data against control limits (Upper/Lower Control Limit - UCL/LCL).
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Rules for "out-of-control": Points beyond limits, runs of points on one side of mean, trends, cycles.
2. Earned Value Management (EVM) (High Priority)
Integrates scope, schedule, and cost to measure performance.
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Key Terms:
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PV (Planned Value / Budgeted Cost of Work Scheduled - BCWS): Budgeted cost for work planned to be done by a date.
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EV (Earned Value / Budgeted Cost of Work Performed - BCWP): Budgeted cost for work actually completed by a date.
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AC (Actual Cost / Actual Cost of Work Performed - ACWP): Actual cost incurred for work completed by a date.
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Core Metrics:
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Cost Variance (CV): $$\displaystyle CV = EV - AC $$
- CV > 0: Under budget. CV < 0: Over budget.
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Schedule Variance (SV): $$\displaystyle SV = EV - PV $$
- SV > 0: Ahead of schedule. SV < 0: Behind schedule.
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Cost Performance Index (CPI): $$\displaystyle CPI = \frac{EV}{AC} $$
- CPI > 1: Cost efficient. CPI < 1: Cost overrun.
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Schedule Performance Index (SPI): $$\displaystyle SPI = \frac{EV}{PV} $$
- SPI > 1: Ahead of schedule. SPI < 1: Behind schedule.
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\boxed{CV = EV - AC \quad ; \quad SV = EV - PV \quad ; \quad CPI = \frac{EV}{AC} \quad ; \quad SPI = \frac{EV}{PV}}
[!TIP] Exam Trap: Remember EV is the common thread. CV and SV compare EV to AC and PV respectively. CPI and SPI are ratios (EV in numerator).
IV. FINANCIAL MANAGEMENT IN PROJECTS
Cost Management
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Cost Estimating:
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Analogous: Using historical data from similar projects (top-down, less accurate).
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Parametric: Using statistical relationship (e.g., cost per square foot).
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Bottom-up: Detailed estimating of individual work packages (most accurate, time-consuming).
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Three-point: Similar to PERT: $$\displaystyle Cost_{estimate} = \frac{Optimistic + 4*MostLikely + Pessimistic}{6} $$.
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Project Budgeting:
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Cost Aggregation: Summing estimated costs for work packages.
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Reserve Analysis: Adding contingency reserves (for known-unknowns) and management reserves (for unknown-unknowns) to the cost baseline.
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Cost Improvement:
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Value Engineering (VE): Systematic analysis to achieve required function at lowest life-cycle cost.
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Cost-Benefit Analysis (CBA): Comparing present value of benefits vs. costs.
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Cash Flow Management
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Elements of Cash Flow:
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Inflows: Customer payments, grants, loans.
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Outflows: Labor, materials, equipment, overheads.
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Net Cash Flow: $$\displaystyle \text{Net CF}_t = \text{Inflows}_t - \text{Outflows}_t $$
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Basic Principles:
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Time Value of Money (TVM): A dollar today is worth more than a dollar tomorrow.
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Discounting: Converting future cash flows to present value (PV). $$\displaystyle PV = \frac{FV}{(1+i)^n} $$
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S-Curve: Graph plotting cumulative cost (or work) vs. time. Shows planned vs. actual cash flow profile. Helps identify periods of high expenditure.
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Cash Flow Forecasting: Predicting future inflows/outflows to ensure liquidity.
Project Financing
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Internal Sources: Retained Earnings, Depreciation (tax shield), Sale of assets.
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External Sources:
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Debt: Loans (bank, bonds), requires collateral/interest.
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Equity: Share capital, venture capital (dilutes ownership).
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Grants: Non-repayable funds (government, NGOs).
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Financial Institutions: Banks, NBFCs, insurance companies.
[!TIP] Exam Focus: Know the difference between Contingency Reserve (in baseline) and Management Reserve (outside baseline). Be able to sketch an S-Curve showing planned vs. actual cash flow.
V. CONTRACTS AND LEGAL ASPECTS
Contract Fundamentals
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Definition: A legally enforceable agreement between two or more parties creating mutual obligations.
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Essentials of a Valid Contract:
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Offer & Acceptance: Clear proposal and unqualified assent.
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Consideration: Something of value exchanged.
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Intention to Create Legal Relations: Serious intent to be bound.
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Capacity: Parties must be legally competent (age, sound mind).
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Legality: Purpose must be lawful.
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Certainty: Terms must be clear and complete.
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Types of Contracts & Risk Allocation
| Type | Description | Risk Allocation | Best For |
|---|---|---|---|
| Fixed-Price / Lump Sum | Total price is fixed. Seller bears cost overrun risk. | Highest risk to Seller. | Well-defined scope, low uncertainty. |
| Cost Reimbursable (Cost-Plus) | Buyer pays actual costs + fee (fixed or %). Buyer bears cost risk. | Highest risk to Buyer. | High uncertainty, undefined scope (R&D). |
| Time & Materials (T&M) | Pay for time (labor rates) + materials. Hybrid of FP & CP. | Shared risk. | Emergency repairs, ill-defined scope. |
Contract Administration
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Key Clauses: Scope of work, payment terms, timeline, penalties/liquidated damages, termination, force majeure, dispute resolution.
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Changes: Managed via Change Orders (formal modifications to scope/cost/time).
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Claims: Formal requests for compensation due to breach or change.
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Dispute Resolution: Negotiation, Mediation, Arbitration, Litigation.
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Closure: Final acceptance, final payment, release of claims, documentation.
[!TIP] Common Pitfall: Mixing up Liquidated Damages (pre-agreed compensation for delay) and Penalties (punitive, often unenforceable). In construction, LD clauses are standard and enforceable if reasonable.
Final Exam Strategy: For 14-mark questions (e.g., Network Models, Tuckman's Model), structure answers with Definition -> Detailed Explanation/Steps -> Example/Diagram -> Conclusion/Importance. Always box final formulas.