Management of Assets in Power Systems

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Management of Assets in Power Systems

October 15, 2024
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“Mount Fuji from Lake Yamanaka” Takahashi Shōtei (1871-1945) | Los Angeles County Museum of Art

The Japanese Standards Association is the Global Secretariat for a standardization project devoted to the discovery and promulgatation of common methods and guidelines for coordinated lifetime management of network assets in power systems to support good asset management.  In addition, this may include the development of new methods and guidelines required to keep pace with development of electrotechnologies excluding generation assets; covered by other IEC standards.

There has, and will continue to be significant investment in electricity assets which will require ongoing management to realise value for the organizations. In the last 5 years, there has been USD 718 billion investment for electricity, spending on electricity networks and storage continued, reaching an all-time high of USD 277 billion in 2016. In the United States (17% of the total) and Europe (13%), a growing share is going to the replacement of ageing transmission and distribution assets.  A more fully dimensioned backgrounder on the business environment that drives the market for this title is available in the link below:

IEC/TC 123 Strategic Business Plan

Begun in 2018, this is a relatively new project with three stabilized titles:

IEC 60050-693 ED1: Management of network assets in power systems – Terminology

IEC 63223-2 ED1: Management of network assets in power systems – Requirements

IEC TS 63224 ED1: Management of network assets in power systems – Practices and case studies

Electropedia: The World’s Online Electrotechnical Vocabulary

It is early in this project’s lifecycle; far too early to find it referenced in public safety and energy laws in the United States where it would affect #TotalCostofOwnership.   Where we should, we follow the lead of the USNC/IEC for the United States, while still mindful that many of our IEEE colleagues follow the lead of their own national standards body.

Because this project fills an obvious gap in good practice literature we maintain this project on our 4 times monthly electrotechnology colloquium that we co-host with the IEEE Education & Healthcare Facilities Committee.   See our CALENDAR for the next online meeting; open to everyone.

World Standards Day 2023 webinars on latest information technologies

The importance of functional safety | 2023-10-11  IEC Editorial Team

 

USNC/IEC Workspace

 

Codex Alimentarius

October 15, 2024
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The Codex Alimentarius Commission regularly reviews and updates its standards and guidelines to reflect the latest scientific knowledge and technological advancements in the food industry. These standards are voluntary, but they serve as a reference for countries and international organizations when developing their own food safety and quality regulations. Compliance with Codex standards can facilitate international trade by ensuring that food products meet common criteria for safety and quality.

Some of the key areas addressed by Codex standards include:

Food safety: Codex sets standards for food contaminants, residues of pesticides and veterinary drugs, food additives, and microbiological criteria to ensure that food products are safe for consumption.

Food labeling: Codex provides guidelines on how food products should be labeled, including information on ingredients, nutrition, allergens, and more.

Food hygiene: It establishes principles and guidelines for food handling, processing, and storage to prevent foodborne illnesses.

Food quality: Codex standards also cover the quality attributes of various food products, including fruits, vegetables, and various processed foods.

Food additives: Codex regulates the use of food additives to ensure they are safe for consumption and serve a specific purpose in food production.

Residue limits: It sets maximum residue limits for various chemicals, such as pesticides and veterinary drugs, in food products to protect consumers from potential harm.

Blockchain Tokens for Food Traceability

 

The Science of Food Standards

Food Safety Risk Management

 

Electrical Commissioning Specifications

October 15, 2024
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University of California San Diego Microgrid Installation



The InterNational Electrical Testing Association (NETA) is an association of leading electrical testing companies comprised of visionaries who are committed to advancing the industry’s standards for power system installation and maintenance to ensure the highest level of reliability and safety.  It has launched a new revision cycle to update  the existing Edition of ANSI/NETA ECS Standard for Electrical Commissioning Specifications for Electrical Power Equipment and Systems.  From the standard prospectus:

Scope: It is the purpose of these specifications to assure that tested electrical equipment and systems are operational, are within applicable standards and manufacturer’s tolerances, and are installed in accordance with design specifications.

Project Need: The purpose of these specifications is to assure that tested electrical systems are safe, reliable, and operational; are in conformance with applicable standards and manufacturers’ tolerances; and are installed in accordance with design specifications. These specifications are specifically intended for application on electrical power equipment and systems.

Stakeholders: Commissioning agents, governmental agencies, A&E firms, inspection authorities, owners of facilities that utilize large blocks of electrical energy, electrical testing firms.

This standard is not intended to be submitted for consideration as an ISO, IEC, or ISO/IEC JTC-1 standard.

Revision cycles to other titles in the NETA catalogue:

NETA standards are typically referenced in electrical system construction documents for setting safety criteria before local authorities permit initial system energization and building occupancy.  The NETA suite is also among the constellation of consensus documents that set the standard of care for the safety of building electrical systems across the full span of an electrical system life cycle.

We review the NETA catalog jointly with the IEEE Education & Healthcare Facilities Committee which is the locus of the most informed technical and business opinions on customer-owned electrical power generating facilities for the education facilities industry.   That committee meets online twice today:

Teleconferences | May 22, 2018

All standards dealing with the #TotalCostofOwnership of distributed electrical energy resources are on the standing agenda of our weekly Open Door teleconferences which are hosted weekly on Wednesday at 11 AM Eastern time.  Click here to log in.

Issue:[13-44]

Category: Electrical, Facility Asset Management, #SmartCampus

Colleagues: Mike Anthony, Jim Harvey, Gary Walls, Glenn Keates

Bucolia 300

October 11, 2024
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Arboreta

Why the “Arbor” in Ann Arbor Michigan?

Other Ways of Knowing Climate Change

Anglo-americká vysoká škola, z.ú. Czech Republic

Today we walk through literature governing the safety and sustainability of the open space features of education community estates.   Unlike the titles for the building envelope, which are known to most design professionals and contractors, the standards for grounds and landscaping are widely scattered; many of them occupational safety related; created, administered and enforced by units of government.

During the fair seasons we examine the moment in landscape, garden, tree and water literature.  We also track titles about the reclamation of building roofs for permeable surfaces and gardens.

During the winter months in the northern hemisphere we include snow and ice management; while covering summer month technologies for southern hemisphere (and vice-versa).  Snowfalls in the southern hemisphere are mainly contained to the highlands and mountain ranges, which are almost exclusively in Victoria and Southern New South Wales, as well as the mountains in Tasmania.   Winter does not pose as much of a cost burden to education facilities in the southern hemisphere as it does in the northern hemisphere.

Arboreta

Landscape standards refer to guidelines or regulations that specify the requirements for the design, installation, and maintenance of outdoor spaces such as parks, gardens, streetscapes, and public spaces. Landscape standards typically cover various aspects of landscape design, including vegetation selection, planting arrangements, irrigation systems, hardscape materials, and lighting.

These standards may be set by government agencies at the federal, state, or local level, or by professional organizations such as the American Society of Landscape Architects (ASLA). Landscape standards aim to ensure that outdoor spaces are safe, functional, and aesthetically pleasing while also promoting sustainability and environmental protection.

Landscape standards may also address issues such as accessibility for people with disabilities, water conservation, stormwater management, and erosion control. They may vary depending on the specific location, climate, and intended use of the outdoor space. Compliance with landscape standards may be required for approval of development projects, public funding, or other permits.

Father Marquette Catholic Academy | Marquette County Michigan

We track the standards catalog of two ANSI-accredited standards developers:

American Hort

Tree Care Industry Association

Additional practice titles applicable to accessory systems:

ASABE/ICC 802 Landscape Irrigation Sprinkler and Emitter Standard 

National Electrical Code: Article 411 Low-Voltage Lighting

Upcode Article 411

National Electrical Code: Article 225: Outside Branch Circuits and Feeders

Illumination Engineering Society (Lighting Library)

Land F/X: Landscape Lighting, Codes, Guidelines and Techniques  

OSHA Landscape and Horticultural Services

As a cross-cutting subject involving soil and water and sun many other standards developers, and all levels of government, produce best practice literature for today’s topic.  We’ll have a look at what’s moving among those.

To join us use the login credentials at the upper right of our home page.

Standing Agenda / Bucolia

Monticello

October 11, 2024
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University of Virginia Landscape Services

Garden Club of Virginia Virtual Tour April 2020

Jefferson’s Plan for an Academical Village

Standards Virginia


University of Virginia | Albemarle County

Scrumpy

October 9, 2024
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International Mechanical Code

October 9, 2024
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“Plaza Italia” 1971 | Giorgio de Chirico

 

After architectural trades, the mechanical technologies occupy the largest part of building construction:

  1. HVAC:
    • Heating Systems: Technologies include furnaces, boilers, heat pumps, and radiant heating systems.
    • Ventilation Systems: Incorporating technologies like air handlers, fans, and ductwork to ensure proper air circulation.
    • Air Conditioning Systems: Including central air conditioning units, split systems, and variable refrigerant flow (VRF) systems.
  2. Plumbing:
    • Water Supply Systems: Involving technologies for water distribution, pumps, and pressure regulation.
    • Sanitary Systems: Including drainage, sewage systems, and waste disposal technologies.
    • Fixtures and Faucets: Incorporating technologies for sinks, toilets, showers, and other plumbing fixtures.
  3. Fire Protection:
    • Fire Sprinkler Systems: Employing technologies like sprinkler heads, pipes, pumps, and water tanks.
    • Fire Suppression Systems: Including technologies such as gas-based or foam-based suppression systems.
  4. Energy Efficiency Technologies:
    • Energy Management Systems (EMS): Utilizing sensors, controllers, and software to optimize energy consumption in HVAC systems.
    • Energy Recovery Systems: Incorporating technologies like heat exchangers to recover and reuse energy from exhaust air.
  5. Building Automation (BAS):
    • Control Systems: Using sensors, actuators, and controllers to manage and automate various mechanical systems for optimal performance and energy efficiency.
    • Smart Building Technologies: Integrating with other building systems for centralized control and monitoring.
  6. Materials and Construction Techniques:
    • Piping Materials: Selecting appropriate materials for pipes and fittings based on the application.
    • Prefab and Modular Construction: Leveraging off-site fabrication and assembly for mechanical components.

Our examination of the movement in best practice in the mechanical disciplines usually requires an understanding of first principles that appear in the International Building Code

2024 International Mechanical Code

Current Code Development Cycles (2024-2026)

2024/2025/2026 Code Development Schedule

“On the Mechanical Equivalent of Heat” | 1850 James Prescott Joule | Proceedings of the Royal Society of London

Representative Design Guidelines:

Michigan State University

Florida State University

US Department of Energy: Sandia National Laboratories

Related:

ICC Releases 2024 International Codes

Group A Model Building Codes

We are waiting for the link to the Complete Monograph for the Group A cycle in which one of our proposals (Chapter 27 Electrical) will be heard at the April 2023 Committee Action Hearings in Orlando.


Superceded:

Because of the larger, disruptive concepts usually require more than one revision cycle — i.e. 3 to 9 years — it is wise to track those ideas in the transcripts of public hearings on the revisions.   For example, the ICC Group A Committee Action Hearings were completed (virtually) in May 2021.  The complete monograph of proposals is linked below:

2021 Group A Complete Proposed Changes

Transcript of committee response is linked below:

2021 REPORT OF THE COMMITTEE ACTION HEARINGS ON THE 2021 EDITIONS OF THE GROUP A INTERNATIONAL CODES

A sample of the topics that need attention that involve the mechanical disciplines (e.g. energy, environmental air, water) :

  • Soil gas and carbon monoxide detection and mitigation
  • Minimum number of required plumbing fixtures in schools and higher education community facilities
  • Fixtures for adult changing stations and gender neutral toilet and bathing facilities
  • Fat, oil and grease interceptors in kitchens
  • Dormitories, residence halls

There are others ideas that can be tracked in the most recent Group B Hearings included April 6th:

LIVE: I-Code Group B Public Comment Hearings

Proposals for the 2024 IMC revision will be accepted until January 7, 2024.  We maintain this title among our core titles during our periodic Mechanical teleconferences.   See our CALENDAR for the next online meeting; open to everyone.

"Microgrids represent a transformational opportunity in how energy is generated, delivered, and consumed" - Robert F. Kennedy, Jr.

2024/2025/2026 ICC CODE DEVELOPMENT SCHEDULE

Issue: [Various]

Colleagues:  Mike Anthony, Richard Robben, Larry Spielvogel


Group A includes the following codes:

  • International Building Code (IBC) – Egress, Fire Safety, General Portions
  • International Fire Code (IFC)
  • International Fuel Gas Code (IFGC)
  • International Mechanical Code (IMC)
  • International Plumbing Code (IPC)
  • International Private Sewage Disposal Code (IPSDC)
  • International Residential Code (IRC) – Mechanical, Plumbing
  • International Swimming Pool and Spa Code (ISPSC)
  • International Zoning Code (IZC)
  • International Property Maintenance Code (IPMC)
  • International Wildland-Urban Interface Code (IWUIC)

ICC Code Development Process: Important Links

 

Workspace / ICC

 

 

 

 

 

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