Through this Postgraduate certificate based on Relearning, you will design photovoltaic systems that maximize energy efficiency and renewable electricity production"

The increasing adoption of large-scale solar PV is completely transforming the global energy landscape In this regard, the International Energy Agency estimates that Europe could generate up to 20% of its electricity from solar sources in the coming years. This underlines the strategic importance of optimizing the design and efficiency of these installations. In this context, engineering professionals play a key role as they are responsible for designing PV systems that maximize efficiency and renewable energy production. In order to achieve this, it is vital that experts select the right layout of solar panels, inverters and other key system components to improve energy yield.

Given this scenario, TECH presents a comprehensive Postgraduate certificate in Large Photovoltaic System Design. Designed by references in this field, the academic itinerary will address in detail the most sophisticated methodologies for the estimation of the energy production of the installations, as well as the technical conditions for their access and connection to the grid. In line with this, the syllabus will delve into Energy Production Estimation, which will enable graduates to properly size the components of the energy system and ensure that the system operates optimally during its lifetime. Moreover, the program will provide students with advanced strategies to ensure safety in photovoltaic plants.

This is an intensive 180-hour program, where students will increase their knowledge on the Design of Large Photovoltaic Installations. All this through a syllabus made up of multimedia resources that include interactive summaries, case studies and complementary readings. Along the same lines, with the Relearning system promoted by TECH, based on the reiteration of the most important concepts throughout this academic itinerary, engineers will obtain a much more effective update.

A cutting-edge academic itinerary that will make you progressively advance from the comfort of your home"

This Postgraduate certificate in Large Photovoltaic Installation Design contains the most complete and up-to-date scientific program on the market. The most important features include:

• The development of case studies presented by experts in Photovoltaic Energy
• The graphic, schematic, and practical contents with which they are created, provide practical information on the disciplines that are essential for professional practice
• Practical exercises where the self-assessment process can be carried out to improve learning
• Its special emphasis on innovative methodologies
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments
• Content that is accessible from any fixed or portable device with an Internet connection

A program that will give you the flexibility you need thanks to its 100% online format. You will be able to plan your schedule individually!"  

The program’s teaching staff includes professionals from the sector who contribute their work experience to this training program, as well as renowned specialists from leading societies and prestigious universities.

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to prepare for real situations.

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the course. For this purpose, the students will be assisted by an innovative interactive video system created by renowned and experienced experts.  

Want to master the most cutting-edge alarm issuance strategies? Achieve it with this revolutionary program in only 180 hours"

You'll delve into Alternating Current/Low Voltage Component Sizing and ensure efficient use of electrical power"

Thanks to this university program, students will have a holistic knowledge about advanced technologies used in the design of large-scale photovoltaic installations. The syllabus will focus on the selection of the photovoltaic plant scheme, taking into account aspects such as solar tracking system analysis, inverter topology and alternative uses. The program will also focus on the design of DC components, which will enable graduates to design more efficient electrical systems. The program will also provide the most effective measures to ensure safety in photovoltaic plants. 

You will develop skills to design photovoltaic systems that maximize energy efficiency and renewable electricity production"

Module 1. Large Photovoltaic Plant Design

1.1. Climate and Topographic Data, Power, Other Data

1.1.1. Peak and/or Nominal Power
1.1.2. Climate and Topographic Data
1.1.3. Other Data: Required Floor Area, Access and Connection Network, Easements

1.2. Selection of the Photovoltaic Plant Layout

1.2.1. Analysis of Solar Tracking Systems
1.2.2. Topology of Inverters: Central or String
1.2.3. Alternative Uses: Agrivoltaics

1.3. Dimensioning of Components in DC

1.3.1. Solar Field Sizing
1.3.2. Solar Tracker Sizing
1.3.3. Wiring and Protection Sizing

1.4. Alternating Current/Low Voltage Component Sizing 

1.4.1. Inverter Sizing
1.4.2. Other Elements: Monitoring, Control and Counters
1.4.3. Wiring and Protection Sizing

1.5. Alternating Current/High Voltage Component Sizing

1.5.1. Transformers Sizing
1.5.2. Other Elements: Monitoring, Control and Counters
1.5.3. High-Voltage Wiring and Protection Sizing

1.6. Energy Yield Estimation

1.6.1. Daily, Monthly and Annual Yield
1.6.2. Production Parameters: Performance Ratio
1.6.3. Strategies for Sizing Optimization. Peak and Nominal Power Ratio

1.7. Monitoring of Variables

1.7.1. Identification of Variables to be Monitored
1.7.2. Strategies for Alarm Issuance
1.7.3. Alternative Monitoring and Alarms for the Photovoltaic Plant

1.8. Grid Integration

1.8.1. Electrical Quality
1.8.2. Grid Codes
1.8.3. Control Centers

1.9. Safety and Health of Photovoltaic Plants

1.9.1. Risk Analysis
1.9.2. Prevention Measures
1.9.3. Protection Measures

1.10. Examples of Photovoltaic Plant Design

1.10.1. Plant Design with Central and Fixed Inverter
1.10.2. Plant Design with Single-Phase Photovoltaic Module, with Inverter by String and Single-Axis Tracker
1.10.3. Plant Design with Bifacial Photovoltaic Module, with Inverter by String and Single-Axis Tracker

You can access the Virtual Campus at any time and download the contents to consult them whenever you want. Enroll now!”