
Explore the complete structure design process for PV systems with STAAD Pro, from introductory standards and loads to design, modeling, material selection, standalone systems, and exporting the final report.
Explore pv structure design basics, including standalone c-section frames, u.s. channels and i-beams, rails and bracing, and the role of galvanization and data sheets.
Calculate dead, live, and wind loads for PV structures, convert to proper units, and verify results with deflection checks and design against uplift using concrete blocks.
Explore snow and wind load calculations under the Jordan and Georgian codes, evaluate live load for rooftop solar structures, and review the design workflow from analysis to detailing.
Calculate wind load for PV system structures using the American code, comparing Jordanian references, selecting exposure C, determining Q and Z values, and applying pressure coefficients for worst-case wind directions.
Create geometry for a PV structure in STAAD Pro by drawing coordinates, forming a regular geometric shape, and building a triangle from points, with options to copy and compare methods.
Draw a structural frame from scratch by establishing the origin, configuring coordinates on the x and y axes, and placing beams with precise distances and bracing.
Learn to draw a pv structure in AutoCAD, import it for study abroad, convert 2d drawings to a 3d frame, rotate components, and save or import the CAD file.
Learn to add sections from the program database for STAAD Pro, choose British profiles like C12, assign to beams, and create custom sections when needed for market specs.
Add a custom section to the STAAD Pro database for pv system design by drawing in AutoCAD, calculating area and natural axis in centimeters, and recording mass properties.
Add wind, dead, and member loads with wind cases and lambda values to a staad pro pv structure, assign them to sections, and compare american and jordanian codes.
Perform analysis to verify model integrity, then design selected sections with proper code and parameters, adjust bracing and beam properties, and interpret beam utility ratios to achieve green design results.
This course will learn you how to design the PV systems structure that is installed on the top roofs of buildings using STAAD Pro Software,
you will learn all the things that you need to carry out the design process with high professionalism, ensuring the quality of work provided by the company that you work with.
The course consists of a detailed and simplified explanation of all the steps to reach a comprehensive all the details such as references and the shape of the structure, basic and combination loads. STAAD Pro is one of the most famous, strongest, and most powerful programs approved for the design of the PV systems structure by many companies and government agencies.
You will learn every point below:
Calculation of the wind load of the PV systems structure which is divided into two parts
- Calculation of the dead load of the PV systems structure which is self-weight plus panels weight
- Calculating live load, live load, and do we really need it in solar systems?
- The Snow load calculation based on American code
- How to draw the structure on the STAAD Pro program itself
- How to draw the structure on AutoCAD and export it to the STAAD Pro
- How to make a practical Selection of sections for the structure of the solar system
- Understand the information from the program and analyze it in practice
- Study the sections and find out how successful the structure is
- How to design the structure according to AISI Code
- How to generate the final Report after design and analysis