IEEE Standards for Electric Power Systems in Buildings

Course Dates :

09/02/25

5

Course ID:

250209051001004EGI

Course Duration :

5 Studying Day/s

Course Location:

Cairo

Egypt

Course Category:

Professional and CPD Training Programs

Subcategories: Construction Safety, Health and Wellbeing, Environmental Sustainability, Risk Management, Technical Skills Development, Leadership and Communication, Quality Assurance

Course Certified By:

* Projacs Academy

* Professional Training and CPD Programs

Leading to:
Executive Diploma Certificate
Leading to:
Executive Mini Masters Certificate
Leading to
Executive Masters Certificate

Certification Will Be Issued From : KSA

Course Fees GBP:

£3,016.40

Click to pay

Please Note :

Your £250.00 Deposit will be deducted from the total invoice Amount.

To commence the registration process for your training course, please follow the link provided and proceed with; Upon successful payment, we will promptly contact you to finalize your enrollment and issue a confirmation of your guaranteed placement.

  • Vat Not Included in the price.
  • VAT may vary depending on the country where the course or workshop is held.

Course Information

Introduction

The integration of electric power systems into modern buildings is a cornerstone of contemporary infrastructure design, ensuring safety, efficiency, and sustainability. As urbanization accelerates globally, the demand for reliable and resilient electrical systems has never been more critical. This course delves into the IEEE standards that govern the design, implementation, and maintenance of these systems, providing participants with the tools to navigate complex regulatory frameworks and technical challenges. The relevance of this subject extends beyond compliance; it encompasses the broader goals of energy optimization, risk mitigation, and innovation in building management.

A significant gap exists between theoretical knowledge of IEEE standards and their practical application in real-world scenarios. Many professionals encounter difficulties interpreting the nuances of these standards, particularly when integrating renewable energy sources or addressing cybersecurity concerns in smart buildings. For instance, a recent case study involving a commercial high-rise revealed that improper grounding practices led to costly downtime and equipment damage, underscoring the need for comprehensive training. By bridging this gap, the course equips participants with actionable insights to enhance system reliability and performance.

The benefits of mastering IEEE standards are manifold, both for individuals and organizations. On an individual level, participants gain a competitive edge by acquiring specialized expertise that aligns with industry best practices. Organizations, on the other hand, can reduce operational risks, improve energy efficiency, and achieve compliance with stringent regulatory requirements. These outcomes are particularly pertinent in light of emerging trends such as the Internet of Things (IoT) and the push toward net-zero carbon emissions, which necessitate advanced technical competencies.

Drawing from established frameworks such as the National Electrical Code (NEC) and ISO 50001 for energy management, this course contextualizes IEEE standards within a broader ecosystem of regulations and guidelines. Participants will explore how these standards intersect with other disciplines, fostering interdisciplinary collaboration. For example, understanding the interplay between IEEE C37.2 (Standard for Electrical Power System Device Function Numbers) and NEC Article 250 (Grounding and Bonding) can lead to more robust system designs.

Real-world applications further underscore the importance of this course. Consider a hospital retrofit project where adherence to IEEE 1584 (Guide for Performing Arc-Flash Hazard Calculations) prevented potential arc-flash incidents, safeguarding both personnel and patients. Similarly, a manufacturing facility leveraging IEEE 1100 (Recommended Practice for Powering and Grounding Electronic Equipment) achieved significant reductions in downtime due to power quality issues. These examples highlight the tangible impact of applying IEEE standards effectively.

Ultimately, this course is designed to empower professionals to not only meet but exceed industry expectations. By fostering a deep understanding of IEEE standards and their practical implications, participants will be well-positioned to drive innovation and excellence in electric power systems for buildings. Whether you are a seasoned engineer or a newcomer to the field, this program offers invaluable insights that align with the evolving demands of the built environment.

Objectives

By attending this course, participants will be able to:

Analyze the foundational principles of IEEE standards relevant to electric power systems in buildings.
Evaluate the impact of compliance with IEEE standards on system safety, reliability, and efficiency.
Design electrical systems that integrate renewable energy sources while adhering to IEEE guidelines.
Implement strategies for mitigating arc-flash hazards using IEEE 1584 recommendations.
Apply IEEE 1100 standards to diagnose and resolve power quality issues in electronic equipment.
Assess the role of IEEE standards in supporting smart building technologies and IoT integration.
Develop a comprehensive plan for maintaining compliance with evolving IEEE standards and updates.

Who Should Attend?

This course is ideal for:

Electrical engineers and technicians involved in the design, installation, and maintenance of building power systems.
Facility managers seeking to enhance the reliability and safety of their electrical infrastructure.
Consultants and contractors responsible for ensuring compliance with regulatory frameworks.
Sustainability professionals aiming to integrate renewable energy solutions into building designs.


These groups will find the course valuable as it addresses the technical and regulatory challenges they face daily. While prior knowledge of electrical systems is beneficial, the course is structured to accommodate intermediate learners who wish to deepen their expertise. Advanced practitioners will also benefit from the latest updates and practical applications covered in the program.

Training Method

• Pre-assessment
• Live group instruction
• Use of real-world examples, case studies and exercises
• Interactive participation and discussion
• Power point presentation, LCD and flip chart
• Group activities and tests
• Each participant receives a 7” Tablet containing a copy of the presentation, slides and handouts
• Post-assessment

Program Support

This program is supported by:
* Interactive discussions
* Role-play
* Case studies and highlight the techniques available to the participants.

Daily Agenda

The course agenda will be as follows:
• Technical Session 08.30-10.00 am
• Coffee Break 10.00-10.15 am
• Technical Session 10.15-12.15 noon
• Coffee Break 12.15-12.45 pm
• Technical Session 12.45-02.30 pm
• Course Ends 02.30 pm

Please Note :

Your £250.00 Deposit will be deducted from the total invoice Amount.

To commence the registration process for your training course, please follow the link provided and proceed with; Upon successful payment, we will promptly contact you to finalize your enrollment and issue a confirmation of your guaranteed placement.

Course Outlines

Week 1
Day 1:
Foundations of IEEE Standards

Overview of IEEE standards and their role in building power systems.
Key principles of IEEE C37.2 and NEC Article 250.
Introduction to grounding and bonding requirements.
Case study: Lessons learned from non-compliance incidents.


Day 2:
Safety and Risk Mitigation

Understanding arc-flash hazards and IEEE 1584 guidelines.
Techniques for calculating incident energy and selecting PPE.
Best practices for labeling and documentation.
Interactive workshop: Conducting an arc-flash risk assessment.


Day 3:
Power Quality and Reliability

Fundamentals of IEEE 1100 for powering electronic equipment.
Diagnosing common power quality issues (e.g., harmonics, voltage sags).
Strategies for improving system reliability through IEEE standards.
Group activity: Troubleshooting a simulated power quality problem.


Day 4:
Renewable Energy Integration

IEEE standards for integrating solar PV and wind energy systems.
Challenges and solutions for grid-tied and off-grid applications.
Ensuring compatibility with existing infrastructure.
Case study: Successful renewable energy integration in a commercial building.


Day 5:
Smart Buildings and Future Trends

Role of IEEE standards in supporting IoT and smart building technologies.
Cybersecurity considerations for connected power systems.
Updates on emerging IEEE standards and their implications.
Panel discussion: Preparing for the future of electric power systems.

Please Note :

Your £250.00 Deposit will be deducted from the total invoice Amount.

To commence the registration process for your training course, please follow the link provided and proceed with; Upon successful payment, we will promptly contact you to finalize your enrollment and issue a confirmation of your guaranteed placement.

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