Learning Objectives
6 objectives- Understand advanced thermodynamics concepts and apply them to analyze mechanical plant performance.
- Analyze fluid dynamics principles to optimize fluid systems within mechanical plants.
- Develop and implement advanced control system strategies for enhanced plant automation and efficiency.
- Apply energy conservation and optimization techniques to improve mechanical plant sustainability.
- Evaluate and apply advanced maintenance strategies to maximize equipment reliability and plant uptime.
- Integrate sustainability principles and green technologies into mechanical plant design and operation.
Content Outline
PreviewUnit 3767: Advanced Mechanical Plant Engineering
1. Advanced Thermodynamics in Mechanical Plants
1.1 Review of Fundamental Thermodynamics
- Basic thermodynamic principles
- Thermodynamic properties and state variables
1.2 Complex Heat Transfer Processes
- Conduction, convection, and radiation in mechanical plants
- Heat exchanger design and analysis
- Transient heat transfer considerations
1.3 Efficiency Calculations
- Thermal efficiency and performance metrics
- Energy balance and exergy analysis
- Impact of losses on plant performance
1.4 Thermodynamic Cycles and Plant Performance
- Rankine, Brayton, and combined cycles
- Cycle modifications for performance improvement
- Cogeneration and combined heat and power (CHP) systems
2. Advanced Fluid Dynamics in Mechanical Plants
2.1 Fluid Flow Behavior
- Laminar and turbulent flow regimes
- Flow characterization in pipes and ducts
- Boundary layer theory and flow separation
2.2 Pressure Drop Calculations
- Darcy-Weisbach equation and friction factors
- Minor losses and fittings impact
- Pipeline design considerations
2.3 Pump and Compressor Performance Analysis
- Pump types and performance curves
- Compressor operation and efficiency
- Cavitation and surge phenomena
2.4 Fluid System Design for Optimal Operation
- System curve and pump selection
- Control valve sizing and selection
- Hydraulic balancing and system optimization
3. Advanced Control Systems in Mechanical Plants
3.1 Fundamentals of Control Systems
- Control loop components
- Stability and response characteristics
3.2 PID Control and Tuning
- Proportional, Integral, Derivative controls
- PID tuning methods (Ziegler-Nichols, Cohen-Coon)
3.3 Cascade and Feedforward Control Strategies
- Principles and applications
- Designing cascade loops
- Feedforward control for disturbance rejection
3.4 Advanced Control Algorithms
- Model Predictive Control (MPC)
- Adaptive and fuzzy logic controls
- Integration with SCADA and DCS systems
3.5 Automation Integration
- PLC programming basics
- Human-Machine Interface (HMI) design
- Data acquisition and system diagnostics
4. Energy Conservation and Optimization in Mechanical Plants
4.1 Energy Auditing Techniques
- Data collection and measurement methods
- Identifying energy losses and inefficiencies
4.2 Energy Management Systems
- Energy monitoring and control
- Benchmarking and performance indicators
4.3 Energy-Efficient Equipment Selection
- High-efficiency motors and drives
- Variable speed drives and controls
- Heat recovery and insulation technologies
4.4 Sustainable Practices Implementation
- Operational best practices
- Employee training and awareness
- Policy development and compliance
5. Advanced Maintenance Strategies for Mechanical Plants
5.1 Predictive Maintenance Techniques
- Vibration analysis
- Thermography and ultrasound
- Lubrication condition monitoring
5.2 Preventive Maintenance Approaches
- Scheduling and planning
- Maintenance checklists and documentation
5.3 Condition Monitoring Methods
- Online vs offline monitoring
- Sensor technologies and data interpretation
5.4 Reliability-Centered Maintenance (RCM)
- Failure modes and effects analysis (FMEA)
- Prioritization of maintenance activities
5.5 Advanced Tools and Technologies
- Computerized Maintenance Management Systems (CMMS)
- Drones and robotics in maintenance
- Augmented reality (AR) for diagnostics
6. Sustainability and Green Technologies in Mechanical Plants
6.1 Renewable Energy Integration
- Solar thermal and photovoltaic systems
- Wind energy applications
- Biomass and bioenergy options
6.2 Waste Heat Recovery Systems
- Types of waste heat recovery
- Organic Rankine Cycle (ORC) systems
- Heat pumps and absorption chillers
6.3 Energy-Efficient Design Strategies
- Building envelope improvements
- Efficient HVAC system design
- Use of insulation and reflective materials
6.4 Environmentally Friendly Materials
- Sustainable construction materials
- Life cycle assessment (LCA)
- Regulatory and environmental standards
Summary and Integration
- Cross-topic case studies
- Integrated plant design project
- Review and knowledge consolidation
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