Our Course
Digital Substation Design & Engineering Course
Digital Substations: Transforming Power Grid Management in a Dynamic Energy Landscape
Modern electricity grids face a surge in complexity. The integration of distributed and renewable energy sources introduces dynamism and intermittency into power generation. This necessitates a more responsive and adaptable grid infrastructure. Digital substations, enabled by the IEC 61850 communication standard, represent a transformative step towards achieving this goal.
Course Overview
This course delves into the critical role of digital substations in ensuring the stability and efficiency of tomorrow’s power grids. Participants will gain a comprehensive understanding of the challenges posed by the evolving energy landscape and how digital substations address them.
Key topics covered include:
- The growing influence of distributed and renewable energy sources on grid dynamics.
- The critical need for enhanced grid responsiveness and flexibility.
- The IEC 61850 communication standard: A cornerstone of digital substation technology.
- The combined benefits of IEC 61850 and advanced automation for interoperability and reliability.
- The transformative impact of digital substations on power grid management.
- Ongoing advancements in the IEC 61850 standard and emerging technologies shaping the future of substations.
Completing this course will charge you for:
- Expertise in Current Engineering Practice for Quality Deliverables
- Clear knowledge of Engineering work procedures & Ability to Work Independently on Projects
- Concepts of Digital Substation
- Characteristics & Merits Of a Digital Substation
- Various Schemes of a Digital Substation
- Summarize all important features of the standard IEC 61850
- Designing The Architecture Of A Digital Substation Automation System
- Significance Of Substation Automation Systems And IEC 61850
- Protection & Control Devices for Digital Substation
- Familiarize with International Industries Norms ( BIS,CBIP,CEA,NEC,IEC, IEEE, NFPA etc)
Who is the course for?
- Engineers who wants to switch their department/unit to Substation
- Engineering department/unit in their Company
- Engineers from state Electricity Boards, Power Utilities/ Corporations
- Graduate Engineers from Academic institutions
- Pre-Final Year & Final Year Engg. Students
- R & D organizations, Research Scholars
This Course Includes
- Certified
- 90 Days
- 50 Students
- 100 Sections
- Martha Hudson
- 10 Modules
- 24 Downloadable Resources
- Fulltime Access
Engineering Specialists & Lecturers from
Electrical Engineer | Tesla Electrical | Ghana
The electrical substation course is an excellent course that helps you understand the concepts of electrical substation and also provides you with the practical knowledge needed to implement what has been taught to real life projects. I would recommend this course to any up and coming electrical engineer.
Grid Solutions Manager | IB Vogt | Greater Madrid
Excellent academy for the Substation course. The content is comprehensive and up-to-date, making it ideal for both professionals and those new to the field. The presentations are clear, well-structured, and the instructors demonstrate deep expertise. The practical approach helps to easily apply the knowledge gained. Highly recommended for anyone seeking high-quality training in the electrical sector.
Senior Electrical Engineer | L&T-S&L | India
I recently had the opportunity to enroll in the Electrical Engineering Substation training program offered by 50Hz Academia, an online platform specializing in engineering education. As someone seeking to deepen my understanding of substation fundamentals, I found the experience to be incredibly valuable and rewarding.First and foremost, the course content was extensive and well-structured. From the basics of substation components to advanced concepts in power distribution each module was meticulously crafted to provide a thorough understanding of the subject matter. The instructors demonstrated a profound knowledge of the material and presented it in a clear, concise manner, making even the most complex topics accessible to learners of all levels.One aspect of the training that particularly impressed me was the use of real-world examples and case studies. By applying theoretical concepts to practical scenarios, the instructors were able to illustrate the relevance and application of the material in industry settings. This approach not only enhanced my understanding of the subject but also fostered a deeper appreciation for the intricacies of substation design and operation.
Electrical Engineer | Tengizchevroil | Cape Town
Substation Design Course
Excellent course with top course presenters. Real world information is shared. Highly recommended.
Substation Layouts covered very well.
Substation Equipment also covered in detail and well explained.
Senior Electrical Engineer | Sedgman | Canada
I recently attended a course on substation design and engineering. The course covered a lot of material suitable for intermediate and advanced levels. We explored various subjects related to substation design, engineering principles, and safety rules.
One of the standout features was the focus on real-world applications. We looked at case studies and scenarios, which helped us understand how theoretical knowledge is applied in practice. The course also included sessions on single line and layout drawings, which are essential for substation design.
Overall, the course provided a solid foundation and practical skills for anyone interested in substation design and engineering.
Power Systems Engineer | KETRACO | Kenya
I recently enrolled for 50hz-academia’s Substation Design Course. The course instructors, who I found to be extremely knowledgeable, did a solid job and covered critical topics such as: –
1. Substation layout development in AutoCAD.
2. Primary Equipment Selection + their associated Engineering Calculations (useful handbooks/calc. sheets shared).
3. Cable, Battery and Earthing Design, and so much more.
The interactive course also takes a highly practical approach with instructors always making references to real-life SLD’s, technical specifications, layouts, equipment assembly drawings and standards (IEC, IEEE), etc.
I highly recommend it for aspiring substation design engineers.
Electrical Engineer | AMGD | United Arab Emirates
I recently attended the Substation Design course with 50Hz Academia, and it was a game-changer for me as an Electrical LV/ELV specialist. The instructors were knowledgeable and used real-world examples to cover every aspect of substation design and engineering.
The course covered all components of substation design.
Real-world examples made the learning experience valuable.
The training gave me the confidence to deliver complete substation designs and provide design support.
I highly recommend 50Hz Academia’s Substation Design course to electrical engineers looking to upgrade their skills. Thank you, 50Hz Academia, for providing this valuable training opportunity!
Directeur technique | VDN Group | France
I highly recommend 50 HZ Academy for anyone looking to deepen their knowledge in HV substation design. The skills and insights gained from this training will undoubtedly enhance my professional capabilities.
The trainers were knowledgeable and approachable, always ready to clarify doubts and share real-world insights. The hands-on exercises and case studies helped bridge the gap between theory and practice, making the learning process engaging and relevant.
Electrical QA/QC Engineer | GPEC | Riyadh Region
The substation design course proved to be an exceptional learning experience, providing a concise yet through exploration.
Training experience was Outstanding.
Course Modules
Optimizing Power Grid Performance in the Digital Age
This module establishes the foundation for digital substation design and engineering, equipping you with the knowledge to navigate this transformative technology within the modern power grid landscape.
- Defining the Digital Substation: Unveiling the core concept and its role in a dynamic energy environment.
- Architectural Blueprint: Exploring the fundamental structure and communication networks of a digital substation.
- Building Blocks of Efficiency: Delving into the essential equipment and components that comprise a digital substation.
- The Digital DNA: Identifying the defining characteristics that differentiate digital substations from traditional designs.
- Quantifying Performance: Evaluating the significance of digital substations in enhancing grid reliability, efficiency, and maintainability.
- Digital Twins: A Window into Performance: Examining the role of digital substation models in design, operation, and maintenance.
Optimizing Functionality and Efficiency through Meticulous Design
- Busbar Configurations: Exploring various Bus-Bar schemes (Single Busbar, One and Half Breaker, Double Main & Transfer) for optimal power flow management.
- Mastering the Single Line Diagram (SLD): Understanding the significance of the SLD as a cornerstone of substation design.
- Detailed SLD Development: Delving into the process of creating a comprehensive and accurate SLD for your digital substation.
- Introducing Primary Equipment: Identifying and integrating key substation equipment such as transformers, circuit breakers, and instrument transformers.
- SLD-Driven Layout Development: Translating the SLD into a functional substation layout, ensuring optimal equipment placement and connectivity.
- Symbiotic Design: SLD, Plan & Section Coordination: Establishing seamless coordination between the SLD, layout plan, and sectional drawings for a cohesive design.
- Structural Loading Considerations: Understanding and applying structural loading principles to ensure the safe and reliable support of substation equipment.
- Sectional & Safety Clearances: Implementing essential sectional and safety clearances to guarantee personnel safety and equipment operation.
- Cable Trench Layout Development: Designing efficient cable trench layouts that optimize cable routing and minimize losses.
- Equipment Key Data & Bill of Materials: Generating the Equipment Key Data (EKD) and Bill of Materials (BOM) for procurement and project management.
- Reduce CAPEX by eliminating duplicated hardware (CT, VT are no longer required)
- Reduce engineering work through simplified system drawings
- Improve workforce safety (miles of copper wires are replaced with fiber-optic cables)
- Easier, faster and remote commissioning / testing
- Reduce substation footprint by up to 50% through a smaller control room
- Improve system reliability through increased situational awareness and asset utilization
- Cybersecurity and digital substation
- Design considerations
- Merits of digital substation
- Main elements of a digital substation
- Commissioning of a digital substation
- Load Details Calculation:
Calculating load requirements for feeders and motors.
Determining the total load to be supported by the cable system.
- Load Details Calculation:
- Cable Type and Construction Features:
Overview of different cable types and their construction.
Features to consider when selecting cables for specific applications. - Cable Impedances:
Understanding cable impedance characteristics.
Importance of impedance in cable selection and performance. - Site Installation Conditions:
Assessing environmental and installation conditions.
Impact of site conditions on cable selection and performance. - Base Current Ratings of Feeders:
Determining the base current ratings for feeder cables.
Ensuring feeders are appropriately rated for their intended load. - Cable Selection Based on Installed Current Ratings:
Selecting cables based on their installed current ratings.
Ensuring cables can handle the operational current safely. - Calculation of Voltage Drop:
Methods for calculating voltage drop in cables.
Importance of maintaining voltage levels within acceptable limits.- Maximum Permissible Voltage Drop by ANSI and IEC Standards:
Understanding the maximum permissible voltage drop according to ANSI and IEC standards.
Ensuring compliance with these standards in cable selection. - Calculating Maximum Cable Length Due to Voltage Drop:
Determining the maximum cable length allowed to maintain acceptable voltage drop levels.
Ensuring efficient power delivery over distance.
- Maximum Permissible Voltage Drop by ANSI and IEC Standards:
- Short Circuit Temperature Rise Calculation of Cable:
Calculating the temperature rise in cables during short circuits.
Ensuring cables can withstand short circuit conditions without damage. - Selection of Minimum Cable Size Due to Short Circuit Temperature Rise:
Selecting the minimum cable size to handle the temperature rise during short circuits.
Ensuring safety and integrity of the cable system under fault conditions.
Structuring a High-Performance Digital Grid Infrastructure
- Communication Network Design: Exploring the design considerations for communication networks within a digital substation, including:
Network topologies (e.g., star, ring)
Media selection (e.g., fiber optic cables)
Cybersecurity protocols - IED Selection and Integration: Evaluating the process of selecting Intelligent Electronic Devices (IEDs) and integrating them seamlessly into the digital substation architecture.
- Data Acquisition and Processing: Understanding the mechanisms for acquiring and processing data from various substation sensors and equipment.
- Human-Machine Interface (HMI) Design: Investigating the principles of designing an effective HMI for substation control and monitoring.
- Integration with SCADA Systems: Exploring the seamless integration of digital substations with Supervisory Control and Data Acquisition (SCADA) systems for centralized grid management.
Ensuring Safe and Reliable Operation Through Intelligent Systems
Intelligent Electronic Devices (IEDs):
- Exploring the functionalities of IEDs, including:
Protection relays (differential, overcurrent, distance, etc.)
Measurement units (current transformers, voltage transformers)
Merging Units (combining analog data into digital streams) - Analyzing the benefits of IEDs, such as:
Enhanced protection functionality
Improved data acquisition and communication
Increased flexibility and scalability - Communication Protocols:
Evaluating the role of communication protocols (e.g., IEC 61850) in enabling communication between IEDs and other substation components. - Control and Monitoring Systems:
Investigating the key functionalities of control and monitoring systems within a digital substation, including:
Automatic control schemes (e.g., voltage regulation)
Real-time monitoring and data visualization
Integration with SCADA systems
Leveraging the IEC 61850 Standard for Seamless Substation Automation
- IEC 61850 Architecture: Examining the core architectural principles of substation automation systems based on IEC 61850, including:
System components (IEDs, gateways, station bus)
Data modeling concepts
Communication protocols (GOOSE, Sampled Values) - Benefits of IEC 61850: Evaluating the advantages of utilizing IEC 61850 in digital substation design, such as:
Enhanced interoperability between devices from different vendors
Improved system flexibility and scalability
Simplified engineering and commissioning processes - Substation Automation System Components: Identifying the key elements within a digital substation automation system based on IEC 61850, including:
Intelligent Electronic Devices (IEDs)
Communication Networks
Human-Machine Interface (HMI)
Substation Automation Servers - Substation Automation Models: Understanding the role of substation automation models in design, configuration, and testing of digital substations based on IEC 61850
- IEC 61850 Architecture: Examining the core architectural principles of substation automation systems based on IEC 61850, including:
Optimizing Grid Management Through Seamless System Integration
- SCADA System Architecture: Analyzing the key components and functionalities of SCADA systems in managing and monitoring the power grid, including:
Master Station
Remote Terminal Units (RTUs)
Human-Machine Interface (HMI)
Data Acquisition and Communication - PLC Integration: Investigating the role of PLCs in substation automation and their integration with digital substations, including:
Control logic execution
Data exchange with IEDs - Communication Protocols: Evaluating the communication protocols used for data exchange between digital substations, PLCs, and SCADA systems (e.g., IEC 61850, DNP3).
- Benefits of Substation Automation Systems: Reiterating the advantages of implementing digital substation automation systems, including:
Enhanced grid reliability and efficiency
Improved situational awareness for operators
Reduced maintenance costs - Digital Substations with IEC 61850: Examining how the IEC 61850 standard facilitates seamless integration of digital substations with SCADA and PLC systems.
- SCADA System Architecture: Analyzing the key components and functionalities of SCADA systems in managing and monitoring the power grid, including:
Bringing Digital Substation Design to Life
- Digital Substation Case Studies: Analyzing real-world examples of digital substations across various applications (e.g., renewable energy integration, transmission grid upgrades).
Focus on key considerations during the design and implementation process.
Evaluate the achieved benefits in terms of performance, reliability, and cost savings. - IEC 61850 Implementation with Relay Configurator Software:
Exploring the use of specialized software tools for configuring Intelligent Electronic Devices (IEDs) based on IEC 61850 standards.
Examining the functionalities of relay configurator software for setting protection relays, defining communication parameters, and testing configurations. - Design Best Practices: Consolidating key takeaways and best practices for successful digital substation design, including:
Integrating industry standards and guidelines.
Optimizing communication network design.
Ensuring cybersecurity measures are in place.
Implementing robust testing and commissioning procedures
- Digital Substation Case Studies: Analyzing real-world examples of digital substations across various applications (e.g., renewable energy integration, transmission grid upgrades).
