Design and Installation of Standalone Solar PV Systems
- Overview
This short course is designed to provide advanced practical knowledge required for the safe, code-compliant design and installation of photovoltaic (PV) systems, with a focus on both grid and off-grid solar electric systems. This training also provides effective use of energy modelling software such as HOMER and RETscreen for easy technical design and financial engineering of renewable energy technologies. The goal of this training is to create unique and specialized practical concepts needed to work on all PV systems, including system components, system sizing, site analysis, PV module criteria, mounting solutions, over-current protection, grounding, safety, and commissioning. The university’s curriculum and practices are conducted to conform to the equirements of ISO/IEC 17024.
Opportunities
Completing this short course can unlock numerous opportunities in the renewable energy sector, including roles as a Solar PV System Designer, Installer/Technician, Project Manager, Sales Consultant, Solar PV Project Analyst, Sustainability Consultant, R&D Engineer, Regulatory Compliance Specialist, and Entrepreneur/Small Business Owner. The flourishing market in the solar PV industry, both in Ghana and beyond, offers ample business prospects for participants post-completion.
Objectives
The objective of the course is to
- Develop a comprehensive understanding of photovoltaic (PV) technology, including the principles of solar energy conversion, types of PV modules, and system components.
- Acquire practical skills in designing solar PV systems, covering aspects such as system sizing, site analysis, shading analysis, and placement optimization for maximum energy generation.
- Gain proficiency in utilizing energy modelling software, such as HOMER and RETscreen, for technical design and financial analysis of solar PV projects, including cost estimation and return on investment calculations.
- Foster teamwork, collaboration, and effective communication skills through hands-on practical exercises, group projects, and case studies related to the design and installation of solar PV systems.
Course Outcomes
At the end of the course, participants will be able to design and install solar PV systems.
Target Audience
- Professionals interested in a career in solar Photovoltaics.
- Professionals in career transition
- Professionals seeking to upgrade their skills.
- New graduates
- Energy management professionals
Course Content
Training Courses |
Course Content |
Component of Lecture course |
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Occupational Health Safety and Environment |
This topic provides trainees with the requisite knowledge to adopt safe and good working habits. The topics include on-site risk assessment; work hazards; site safety; first aid |
Fundamentals of Solar Energy |
This topic covers the knowledge on basics of the Solar PV system. Topics discussed are but not limited to the following: Electricity from Solar Energy; Feature of Solar PV System; Site selection, Solar Home Systems (SHS), Centralized System, solar thermal systems including concentrated solar power systems (CSP) |
Solar Radiation |
This topic provides broad knowledge on solar energy and some of the topics discussed are solar Insolation; Peak Sun Hour (PSH); Tilt Angle and examples of effect by various tilt angles; No-Shade Time |
Electrical Basics and circuit theory |
This topic covers the knowledge of basic electricity and basic calculation skills of electrical circuits. Topics include AC and DC circuits; Ohm’s Law, Power Law; Kirchhoff’s Law; Power and Energy; Peak load and Daily Power consumption; Voltage Drop; Calculation of Voltage Drop; Specification of Voltage Drop |
PV Cells and Modules |
The topics discussed in this section broadly cover the physics of the PV cell; PV module; Type of PV Module; I-V and P-V Curve; characteristics of IV Curve; Series & Parallel Connection; Output of PV Module; Bypass Diodes & Blocking Diodes; Effects of shadow |
Batteries |
The topics discussed in this section broadly cover the Type of Lead-acid Batteries; Profile of Battery Voltage; Indicator of State of Charge. Charging Efficiency; Cycle Life, Capacity; Discharge Rate; Maintenance of Electrolyte; Maintenance of Electrode; Maintenance of Cell Voltage; Battery capacity specifications; effects of temperature; Series, Parallel and Inter-Connection |
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Charge Controllers |
The topics discussed in this section cover Function of Charge Controller; Type of Charge Controller; Status of the charge controller, Setpoint voltage; Connecting Sequence, etc. |
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Inverters |
Topics treated under inverters include the various types of inverters (eg. Square wave, pure sine wave, etc), output waveform, surge-related issues |
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Applying Energy Efficiency Techniques and Load Assessment |
This topic provides knowledge on techniques needed to reduce electrical demand. These solutions mostly passive in nature can reduce demand to reduce the capacity of the system to be sized. Topics include an overview of passive solar design systems (eg. Orientation, thermal mass, insulation, ventilation, window shading, and sun control, etc.); overview of active solar systems |
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System Design |
This topic provides in-depth calculations required to conduct system component sizing. Design criteria and the required specification are analyzed. Topics handled are assessing end-user services and energy demand; resource assessment and selection, site assessment; system configuration; Determining the load requirements of the system; Determining the losses of the subsystem, e.g. battery efficiency, regulator efficiency, and cable losses; Determining the size; Load estimation, inverter sizing, battery sizing, charge controller sizing, PV sizing, wiring sizing. |
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System inspection, monitoring, and Maintenance |
This topic covers the knowledge of inspection, monitoring, and Maintenance. Topics discussed are System Parameters; Measuring equipment; Status of Charge Controller; Status of the system; Measuring points (Centralized); Specific Gravity; Daily Usage Time of loads (SHS); Peak load & Total load (Centralized) |
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Testing and commissioning of the system |
This topic aids knowledge in system commissioning. The topic covers discussion areas such as final installation checklist; Visual inspection; verification of code compliance; electrical system verification testing; system functioning testing; verification of array power and energy production against standard test conditions (STC); derating factor componets
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Fault Finding and Trouble Shooting |
This topic covers general knowledge of troubleshooting. Topics to be discussed include; IV and PV Curve; characteristics of IV Curve; Series & Parallel Connection; Effect of shadow; short circuit faults and open circuit faults. |
Introduction to HOMER, Pvsyst, SEQUEL (A Solver for circuit Equations with User-defined Elements) and RetScreen Software |
These software tools are decision-making tools that reduce the cost of pre-feasibility studies; • training people to beer analyze the technical and financial viability of possible projects. |
Procurement and quality management & customer care |
This topic covers the knowledge of Procurement and quality management principles. The trainer will explain the specifications of the main components and measuring instruments to be used in a PV project and how to read the datasheet of materials. • Trainee will better understand the standards for selection, choices, and financial implications in the procurement of solar system devices. |
Knowledge evaluation |
Trainees will be examined in theoretical and practical skills |
Component of Practical work (hands-on) |
Course Content |
How to use measuring instruments |
This topic covers the skills on how to use measuring instruments. The trainer explains the specifications of measuring instruments and how to use them. After the explanation, the trainee will measure the parameters using the instruments individually and record the data on the datasheet |
Measuring of an electrical circuit |
This topic reviews the circuit laws and voltage drops learned in the basics of electricity. The trainees will calculate the values at the designated points by using circuit laws, and then trainees will measure the values at the same points to confirm if both values are the same. |
Performance check of Charge Controller |
This topic reviews the functions and operation conditions of the charge controller. Trainees are tooled to check the protection function of the charge controller by using test instruments. It is important to understand how switches change when the charge controller has reached a high voltage disconnect (HVD) or low voltage disconnect (LVD) |
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Inspection of PV system |
This topic reviews the inspection method of a PV system. Trainees are provided with the requisite skills to check the PV system by measuring the system parameters during operation. It is important to understand the meaning of system parameters. |
Monitoring of existing PV system |
This topic covers the monitoring method of the existing PV system. The trainees will be instructed on how to conduct monitoring using the monitoring sheet. The trainees will conduct monitoring of the existing PV system at the site and evaluate the system status from monitoring results. |
Measuring of I-V curve |
This topic covers the measurement of the I-V curve and what are the parameters that affect the I-V curve. The trainees are instructed to measure I-V curve using a test instrument and record the data into a datasheet. After measuring, the trainees will arrange and process the data |
Measuring of PV module output |
This topic covers the characteristics of PV output. |
Conducting continuity test of wiring |
This test is done to make sure there is continuity in the cable to be used for the connection. |
System connection sequence |
Connection sequence is important to avoid damage to trainees and system components. |
System connection |
For example, a simple standalone Solar System like street lighting components are connected and installed |
Programme Overview
The MSc Sustainable Energy Engineering Management program provides a comprehensive understanding of the synergy between energy, engineering, and management. Covering renewable energy technologies, energy efficiency, and environmental impact assessment, it equips students with practical skills. Emphasizing interdisciplinary collaboration, the curriculum navigates global energy challenges and explores emerging technologies. With a focus on project planning, implementation, and economic analysis, students are prepared for leadership roles. The program fosters adaptability to industry changes and integrates ethical considerations. Overall, it ensures a well-rounded skill set, aligning graduates with the values essential for positive contributions to the sustainable energy sector.
The MSc Sustainable Energy Engineering Management program provides a comprehensive understanding of the synergy between energy, engineering, and management. Covering renewable energy technologies, energy efficiency, and environmental impact assessment, it equips students with practical skills. Emphasizing interdisciplinary collaboration, the curriculum navigates global energy challenges and explores emerging technologies. With a focus on project planning, implementation, and economic analysis, students are prepared for leadership roles. The program fosters adaptability to industry changes and integrates ethical considerations. Overall, it ensures a well-rounded skill set, aligning graduates with the values essential for positive contributions to the sustainable energy sector.
- APPLICATIONS DETAILS
Interested Applicants Should Apply Here.
For Enquires, Call 0203142853/050 636 6712.
COURSE REGISTRATION FEE: GHS 2000.00
EARLY BIRD REGISTRATION: 1500.00
LIMITED SEATS AVAILABLE FOR THIS SESSION.
FEMALE APPLICANTS ARE ENCOURAGED TO APPLY
Certificate of Participation Will Be Awarded to Participants Upon Successful Completion of the Training.