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Qualification Standard for Power Plant Operators

EPRI is an independent, nonprofit organization that is primarily funded by its member utilities. These member utilities are typically electric power companies, and they contribute financially to EPRI to support its research and development activities.

While EPRI is not directly funded by the government, it does collaborate with various government agencies on research projects and receives funding for specific initiatives through government grants and contracts. Additionally, some of EPRI’s research and development efforts align with government priorities in areas such as renewable energy, environmental sustainability, and grid modernization.

Qualification Standard for Power Plant Operators

EPRI 2024 Research Portfolio: Building on Success to Drive Progress

Electrical inspectors (See NFPA 1078) typically do not have jurisdiction over electrical power plants. Electrical power plants, especially large-scale utility power plants, are subject to much more stringent regulations and oversight than regular electrical installations. The responsibility for inspecting and ensuring the safety and compliance of power plants falls under various government agencies and organizations.

In the United States, for example, power plants are subject to federal regulations set forth by the U.S. Nuclear Regulatory Commission (NRC) for nuclear power plants or the U.S. Environmental Protection Agency (EPA) for fossil fuel power plants. Additionally, state regulatory agencies and utility commissions may have their own specific requirements and oversight for power plants within their jurisdictions.

Power plants typically undergo rigorous inspections and audits to ensure compliance with safety, environmental, and operational standards. These inspections are conducted by specialized teams of engineers, experts, and representatives from relevant regulatory bodies and utilities.

While electrical inspectors may not have jurisdiction over power plants, they play a crucial role in inspecting and ensuring the safety of electrical installations in other settings, such as smaller power generation facilities (i.e. district energy plants) that are not exempted by self-assessment charters granted to many large university power plants.

Gallery: School, College & University Electric Systems

 

Electrical Safety in Academic Laboratories

Nikola Tesla, with his equipment / Credit: Wellcome Library, London

We collaborate closely with the IEEE Education & Healthcare Facilities Committee which meets 4 times monthly in European and American time zones.  Risk managers, electrical safety inspectors, facility managers and others are welcomed to click into those teleconferences also.  We expect that concepts and recommendations this paper will find their way into future revisions of US and international electrical safety codes and standards.  There is nothing stopping education facility managers from applying the findings immediately.

College of Engineering and Technology, Bhubaneswar India


Electrical Safety of Academic Laboratories | 2019-PSEC-0204

Presented at the 55th IEEE Industrial Applications Society I&CPS Technical Conference | Calgary, Alberta Canada | May 6-9, 2019

Ω

Rodolfo Araneo, University of Rome “La Sapienza” | rodolfo.araneo@ieee.org

Payman Dehghanian, George Washington University | payman@gwu.edu

Massimo Mitolo, Irvine Valley College | mitolo@ieee.org

 

Abstract. Academic laboratories should be a safe environment in which one can teach, learn, and conduct research. Sharing a common principle, the prevention of potential accidents and imminent injuries is a fundamental goal of laboratory environments. In addition, academic laboratories are attributed the exceptional responsibility to instill in students the culture of the safety, the basis of risk assessment, and of the exemplification of the prudent practice around energized objects.  Undergraduate laboratory assignments may normally be framed based upon the repetition of established experiments and procedures, whereas, academic research laboratories may involve new methodologies and/or apparatus, for which the hazards may not be completely known to the faculty and student researchers. Yet, the academic laboratory should be an environment free of electrical hazards for both routine experiments and research endeavors, and faculty should offer practical inputs and safety-driven insights to academic administration to achieve such a paramount objective. In this paper, the authors discuss the challenges to the electrical safety in modern academic laboratories, where users may be exposed to harmful touch voltages.

I. INTRODUCTION

A. Electricity and Human Vulnerabilities

B. Electrical Hazards in Academic Laboratories

II. ELECTRICAL SEPARATION

III. SAFETY IN ACADEMIC LABORATORIES WITH VARIABLE FREQUENCY DRIVES

IV. ELECTRICAL SAFETY IN ACADEMIC LIGHTING LABORATORIES

V. ACADEMIC RESEARCH LABORATORIES

A. Basic Rules of Engagement

B. Unidirectional Impulse Currents

VI. HAZARDS IN LABORATORIES DUE TO ELECTROMAGNETIC FIELD EXPOSURE

VII. WARNING SIGNS AND PSYCHOLOGICAL PERCEPTION OF DANGER

VIII. CONCLUSION

Safety is the most important practice in an academic laboratory as “safety and productivity are on the same team”.  Electrical measurement and electrically-powered equipment of various brands and models are common in both teaching and research laboratories, highlighting the need to maintaining them continuously in an electrically-safe status.  Annual reports on the occurrence of electrical hazards (i.e. shocks and injuries) in academic laboratory environments primarily discover the (i) lack of knowledge on using the electrical equipment, (ii) careless use of the energized electric facilities, and (iii) faulty electrical equipment or cords. The above does call for the establishment of safety-driven codes, instructions, and trainings for the academic personnel working with or near such devices for teaching, learning, experiments, and research. This paper provided background information on the concept of electrical safety in the academic laboratories, presented the safety challenges of modern academic laboratories, and offered solutions on how enhance the lab environment and research personnel safety awareness to avoid and control electrical hazards.

Issue: [19-129]

Category: Electrical, Facility Asset Management, Fire Safety, International

Colleagues: Mike Anthony, Rodolfo Araneo, Payman Dehghanian, Jim Harvey, Massimo Mitolo, Joe Tedesco

Related IEEE Research:

Laboratory Safety and Ethics

Strengthening and Upgrading of Laboratory Safety Management Based on Computer Risk Identification

Study on the Operators’ Attention of Different Areas in University Laboratories Based on Eye Movement Tracking Technology

Critical Study on the feasiblity of Smart Laboratory Coats

Design of Safety Monitoring System for Electrical Laboratory in Colleges and Universities under the Background of Informatization

Clean Environment Tools Design For Smart Campus Laboratory Through a Global Pandemic

Design of Laboratory Fire Safety Monitoring System


Quantum Computing

Is it a fact—or have I dreamed it—that, by means of electricity,

the world of matter has become a great nerve,

vibrating thousands of miles in a breathless point of time?

Nathaniel Hawthorne, 1851 | The House of Seven Gables

 

Universitat de Barcelona

Today we break form from our normal custom of assessing conceptual movement in stabilized safety and sustainability standards for education settlements and, instead, venture into a domain that will inform nearly everything we do; and with gathering pace.

We begin with the action among the experts in the organizations listed below:

  1. National Institute of Standards and Technology (NIST):
    • NIST’s Post-Quantum Cryptography Standardization: NIST is working on standardizing cryptographic algorithms that are secure against quantum attacks. The goal is to ensure that data remains secure even with the advent of quantum computers. This involves selecting algorithms through an open competition, which began in 2016, and is still ongoing.
    • Quantum Information Program: NIST conducts research and develops standards related to quantum information science, including quantum computing, quantum communication, and quantum metrology.
  2. Quantum Economic Development Consortium (QED-C):
    • Formed as part of the National Quantum Initiative Act, QED-C aims to enable and grow the quantum industry in the U.S. It involves various stakeholders, including industry, academic institutions, and government agencies, working together to identify and address standards and other needs to foster a robust quantum ecosystem.
  3. National Quantum Initiative (NQI):
    • Established by the National Quantum Initiative Act in 2018, NQI coordinates efforts across multiple agencies, including NIST, the Department of Energy (DOE), and the National Science Foundation (NSF), to advance quantum information science. This includes the development of standards, infrastructure, and research to support quantum technologies.
  4. International Standards:
    • While primarily international, organizations like the International Telecommunication Union (ITU) and the International Organization for Standardization (ISO) have working groups focusing on quantum technologies. U.S. participation in these groups helps ensure that global standards align with U.S. interests and priorities.
  5. Federal Agencies and Research Programs:
    • The DOE, NSF, and other federal agencies fund research and development in quantum computing, which often includes aspects related to standards and best practices. For example, the DOE’s Quantum Information Science (QIS) Research Centers and NSF’s Quantum Leap Challenge Institutes.
  6. Industry-Led Initiatives:
    • Several industry consortia and companies are actively involved in developing quantum computing standards. Organizations like the IEEE have working groups focused on quantum computing and quantum communications standards.

Overall, the U.S. approach to quantum computing standards is multifaceted, involving federal agencies, industry consortia, academic research, and participation in international standard-setting bodies.

Andrej Karpathy (Stanford, OpenAI): Introduction to Large Language Models

Fast & Ultra-Fast Charging for Battery Electric Vehicles

IEC Sustainable mobility systems

IEEE Spectrum | 4 December 2022

Fast and Ultra-Fast Charging for Battery Electric Vehicles – A Review

Camilo Suarez – Wilmar Martinez
Department of Electrical Engineering KU Leuven — EnergyVille, Belgium
Ω
Abstract: This paper intends to establish an overall up-to-date review on Fast Charging methods for Battery Electric Vehicles (BEV). This study starts from basic concepts involving single battery cell charging, current and future charging standards. Then, some popular power converter topologies employed for this application are introduced, and finally a summary of the industrial solutions available on the market are presented, as well as the ongoing projects related to the extreme fast charging (XFC) network expansion. Practical insights, considering the current BEV scenario, are employed to get a better understanding of this topic. Special attention is given to the modular design approach, analyzing its advantages and some of the factors that influence the number and size of modules that conform a fast charger solution.
CLICK HERE for complete paper

Personal e-Transporters

Flicker Characterization of Energy Saving Lamps

 

Photometric Flicker Characterization Study on Energy Saving Lamps Under Wide Variation Voltage AC Network

 

Rizally Priatmadja

PT PLN (Persero), Jl. Trunojoyo Blok M I/135 Kebayoran Baru, Jakarta, Indonesia

Pascal Dupuis

Kawantech S.A.S, 6 Rue Françoise d’Eaubonne, Toulouse, France

Ngapuli I. Sinisuka

School of Electrical Engineering and Informatics, Bandung Institute of Technology, Jalan Ganesha 10, Bandung, Indonesia

Georges Zissis

Université de Toulouse, Laplace, UMR 5213 (CNRS, INPT, UPS), 118 rte de Narbonne, Toulouse, France

 

Abstract:  With the advent of Solid State Lighting came a renewed interest in the study of flicker. Potential effects include brightness enhancement, but also discomfort, ocular fatigue, phantom and stroboscopic effects. Both IEEE and IEC developed new metrics, but at the time of writing no firm consensus has been reached. Yet previous lamp studies in the Laplace laboratory showed that various flicker phenomenon are present on different lamps, but this feature is not documented. This paper focus on flicker changes w.r.t. applied voltage. The Indonesian power grid network is indeed characterized by large voltage variations; our purpose is to detect which lamps may exhibit too elevated flicker levels during out of nominal excursion and map such behavior with other electrical characteristics.

CLICK HERE to order complete paper

More

International Standardization Organization Technical Committee 274 Light and Lighting | Strategic Business Plan

Harmonic Impacts on the Electrical Distribution Network by the Broad Usage of LED Lamps

LED lighting — Reduce the power consumption and increase the users comfort

Variation of discharge parameters versus cold spot temperature in a 50 Hz AC operated fluorescent lamp

A Survey on Explainable Artificial Intelligence

Decoding the US Senate Hearing on Oversight of AI: NLP Analysis in Python

 

Peeking Inside the Black-Box_ A Survey on Explainable Artificial Intelligence (XAI)

IEEE Explore

Amina Adadi & Mohammed Berrada

Ben Abdellah University Morocco

 

ABSTRACT: At the dawn of the fourth industrial revolution, we are witnessing a fast and widespread adoption of artificial intelligence (AI) in our daily life, which contributes to accelerating the shift towards a more algorithmic society. However, even with such unprecedented advancements, a key impediment to the use of AI-based systems is that they often lack transparency. Indeed, the black-box nature of these systems allows powerful predictions, but it cannot be directly explained. This issue has triggered a new debate on explainable AI (XAI). A research field holds substantial promise for improving trust and transparency of AI-based systems. It is recognized as the sine qua non for AI to continue making steady progress without disruption. This survey provides an entry point for interested researchers and practitioners to learn key aspects of the young and rapidly growing body of research related to XAI. Through the lens of the literature, we review the existing approaches regarding the topic, discuss trends surrounding its sphere, and present major research trajectories.

Sample of video coverage sorted by view count:

 

How Engineers are Strengthening the Electrical Power Grid

 

 

How does the electrical grid respond to a crisis?

If the power goes out after a thunderstorm, utility crews are on the job within hours to restore service and get the lights back on. Most electric utilities in the U.S. have a reputation for reliability and recovery from situations like this. It has been noticed as planners began thinking about increased natural disasters brought on by population migration patterns, manmade interference due to malicious cyber-attacks, and the instability brought about by adding large quantities of renewable energy.

At North Carolina State University, The Future Renewable Electric Energy Delivery and Management (FREEDOM) Systems Engineering Research Center was created through funding from the National Science Foundation in 2008 to modernize the electrical grid to accommodate sustainable energy, such as wind and solar power. The Freedom Center has been involved in developing online tools for assessing vulnerabilities to address cyber-physical security called distributed grid intelligence. The hope is that smart microgrids with sensors embedded throughout the system might be more resilient to failure and easier to bring back online and large multi-state electric grids. But the emerging smart grid, together with distributed renewable energy such as rooftop solar, presents a new set of challenges to resilience. The Smart Grid involves more distributed energy down to the home level. That kind of penetration adds a level of vulnerability to a cyber threat. Engineers will certainly have to pay attention to that as the grid gets smarter.

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