1. Introduction
PVHydro is a professional desktop application designed for engineers and consultants working on hybrid photovoltaic (PV) and pumped hydro storage (PHS) power plant projects. The software provides comprehensive design capabilities, advanced calculations, and professional reporting features.
1.1 Key Features
- Hydro Power Design: Complete hydraulic calculations with penstock optimization, reservoir design, and efficiency analysis
- PV Solar Design: Advanced photovoltaic system design with location-based optimization, panel selection, and inverter matching
- Optimization Analysis: Multi-parameter optimization to find the best design configuration
- Professional Reports: Generate comprehensive PDF reports with detailed calculations and charts
- Project Management: Save, load, and manage multiple projects
1.2 System Requirements
- Operating System: Windows 10/11 (64-bit)
- RAM: Minimum 4 GB (8 GB recommended)
- Storage: 500 MB free disk space
- Display: 1280x720 minimum resolution
2. Getting Started
2.1 First Launch
When you first launch PVHydro, you'll be prompted to activate your license:
- Click "Generate Activation Request" to create a license request file (
.licreq)
- Send this file to support@pvhydro.mushsho.com
- After purchase, you'll receive a license file (
.lic)
- Place the license file in the same folder as the executable
- Restart the application to activate
Note: The application requires a valid license to run. During the 7-day trial period, all features are available.
2.2 Application Interface
The PVHydro interface consists of:
- Ribbon Menu: Top menu bar with File, Edit, View, and Help options
- Project Information Panel: Collapsible panel for entering project details
- Main Tabs: Hydro Design, PV Solar Design, and Optimization Analysis
- Results Panel: Displays calculation results and visualizations
3. Hydro Power Design
The Hydro Design module allows you to design and analyze pumped hydro storage systems.
3.1 Basic Tab
The Basic tab contains fundamental hydraulic parameters:
- Head (m): Vertical height difference between upper and lower reservoirs
- Flow Rate (m³/s): Design flow rate for the system
- Pump Efficiency (%): Efficiency of the pumping system (typically 70-85%)
- Turbine Efficiency (%): Efficiency of the turbine (typically 85-95%)
- Simple Losses (%): Additional system losses (friction, fittings, etc.)
3.2 Penstock Tab
Configure the penstock (pipeline) parameters:
- Design Flow (m³/s): Flow rate through the penstock
- Length (m): Total penstock length
- Material: Select from Steel, HDPE, or GRP
- Auto Diameter: Check to automatically calculate optimal diameter
- Diameter (mm): Manual diameter input (if Auto Diameter is unchecked)
Tip: Enable "Auto Diameter" to let the software calculate the optimal penstock diameter based on flow rate and material properties.
3.3 Reservoir Design
Configure the upper and lower reservoirs:
- Set Radius Manually: Check to manually set reservoir radius
- Reservoir Radius (m): Radius of the circular reservoir
- Upper Reservoir Elevation (m): Elevation of the upper reservoir
- Lower Reservoir Elevation (m): Elevation of the lower reservoir
3.4 Running Calculations
After entering all parameters:
- Click "Calculate Design" button
- Review the results in the Results Panel
- Check for any warnings or errors
- Adjust parameters as needed and recalculate
3.5 Understanding Results
The Hydro Design results include:
- Power Output: Calculated power generation capacity
- Head Losses: Frictional and minor losses in the penstock
- Penstock Specifications: Diameter, velocity, Reynolds number
- Reservoir Geometry: Volume, surface area, capacity
- Efficiency Analysis: Overall system efficiency
4. PV Solar Design
The PV Solar Design module designs photovoltaic systems to power the pumped hydro storage system.
Important: You must complete the Hydro Design calculation before running PV Design, as PV capacity depends on the hydro system's energy requirements.
4.1 Location Tab
Select the project location and pumping parameters:
- Solar Location: Choose from predefined locations (Desert, Tropical, Temperate, etc.)
- Pump Efficiency: Efficiency of the pumping system
- Safety Factor: Design safety factor (typically 1.1-1.3)
4.2 System Tab
Configure PV system components:
- Panel Power (W): Rated power of individual PV panels
- Panel Area (m²): Area of each panel
- Panel Efficiency (%): Conversion efficiency of panels
- Inverter Power (kW): Rated power of inverters
- Inverter Efficiency (%): Inverter conversion efficiency
- AC/DC Ratio: Ratio of AC inverter capacity to DC panel capacity
4.3 Losses Tab
Configure system losses and derating factors:
- System Losses (%): Overall system losses
- Soiling Losses (%): Losses due to dust and dirt
- Shading Factor: Shading derating factor (0-1)
- Mismatch Losses (%): Panel mismatch losses
- DC Cable Losses (%): DC wiring losses
- AC Cable Losses (%): AC wiring losses
- Module Degradation (%): Annual degradation rate
- LID Losses (%): Light-induced degradation
4.4 Economic Tab
Enter cost parameters for economic analysis:
- Panel Cost ($/W): Cost per watt of PV panels
- Inverter Cost ($/kW): Cost per kilowatt of inverters
- Installation Cost ($/W): Installation and labor costs
- Land Cost ($/m²): Land acquisition cost
- Grid Connection Cost ($): Grid connection fees
- Electricity Price ($/kWh): Local electricity price
- Project Lifetime (years): Expected project lifetime
- Discount Rate (%): Discount rate for LCOE calculation
- O&M (%): Annual operations and maintenance percentage
4.5 Running PV Design
- Ensure Hydro Design is completed
- Enter all required parameters in the PV Design tabs
- Click "Calculate PV Design"
- Review results in the Results Panel
4.6 PV Design Results
The results include:
- PV Capacity: Total installed PV capacity
- Panel Configuration: Number of panels, strings, arrays
- Inverter Configuration: Number and arrangement of inverters
- Performance Metrics: Capacity factor, Performance Ratio (PR)
- Energy Balance: Daily energy generation vs. consumption
- Economic Analysis: Total cost, LCOE, payback period
- Hourly Profile: Hourly power generation chart
5. Optimization Analysis
The Optimization Analysis module allows you to analyze multiple design scenarios and find optimal configurations.
5.1 Parameters Tab
Select parameters to vary in the optimization:
- Head, Flow Rate, Pump Efficiency
- Panel Power, Inverter Power, AC/DC Ratio
- Various loss parameters
For each parameter, set:
- Minimum Value: Lower bound for optimization
- Maximum Value: Upper bound for optimization
- Step Size: Increment between test values
5.2 Settings Tab
Configure optimization settings:
- Technical Analysis: Enable technical parameter analysis
- Commercial Analysis: Enable economic analysis
- Optimization Criteria: Select optimization objective (minimize LCOE, maximize efficiency, etc.)
5.3 Running Optimization
- Complete both Hydro and PV Design calculations
- Configure parameters and settings in Optimization Analysis
- Click "Run Optimization"
- Wait for analysis to complete (may take several minutes)
- Review optimization results and recommendations
Note: Optimization analysis can be computationally intensive. The time required depends on the number of parameters and step sizes selected.
6. Reports and Export
6.1 Generating PDF Reports
To generate a professional PDF report:
- Complete your design calculations (Hydro and/or PV)
- Go to File → Export → PDF Report or click the PDF export button
- Choose save location and filename
- Click "Save"
6.2 Report Contents
The PDF report includes:
- Cover Page: Project information and client details
- Executive Summary: Key design parameters and results
- Hydro Design Section: Complete hydro system design and calculations
- PV Design Section: PV system design, performance, and economics
- Charts and Graphs: Visual representations of results
- Technical Specifications: Detailed component specifications
6.3 Exporting Data
You can export project data to:
- Excel: Export calculation results to Excel format (Professional license)
- CSV: Export data to CSV for analysis in other tools (Professional license)
7. Project Management
7.1 Creating a New Project
- Go to File → New Project or press
Ctrl+N
- Enter project information (optional)
- Start entering design parameters
7.2 Saving Projects
- Go to File → Save Project or press
Ctrl+S
- Choose save location
- Enter project filename
- Click "Save"
Tip: Save your project frequently to avoid losing work. Projects are saved with a .pvhydro extension.
7.3 Loading Projects
- Go to File → Open Project or press
Ctrl+O
- Navigate to the project file
- Select the file and click "Open"
7.4 Recent Projects
The File → Recent Projects menu shows your recently opened projects for quick access.
8. Troubleshooting
8.1 Common Issues
Application Won't Start
- Ensure you're running Windows 10/11 (64-bit)
- Check that the executable file is not corrupted (re-download if needed)
- Run as Administrator if permission errors occur
- Check antivirus software isn't blocking the application
License Activation Issues
- Ensure the license file (
.lic) is in the same folder as the executable
- Verify the license file is for this specific computer (machine-bound)
- Check that the license hasn't expired
- Contact support if issues persist
Calculation Errors
- Verify all input values are positive and within reasonable ranges
- Check that required fields are filled
- Ensure Hydro Design is completed before PV Design
- Review error messages for specific validation failures
PDF Report Generation Issues
- Ensure you have write permissions in the save location
- Check that sufficient disk space is available
- Close the PDF file if it's open in another application
8.2 Getting Help
If you need additional assistance:
- Email Support: support@pvhydro.mushsho.com
- Documentation: Visit the documentation section on our website
- Training: Request professional training sessions