Media

Webcast Abstracts

Title: Critical power: Optimizing on-site generators and battery storage for reliable power

Date: February 26, 2026

Abstract:

Ensure uninterrupted power by mastering the design and specification of critical power systems. This webcast dives deep into NFPA standards, generator configurations and storage solutions — providing engineers with practical strategies to overcome space, cost and complexity challenges while staying code-compliant and future-ready.

Critical power systems are foundational to the reliability and safety of mission critical and other essential facilities such as hospitals, data centers, K-12 schools and commercial buildings. This webcast explores best practices and technical considerations for designing and specifying generator-based power generation systems, supplemented by power storage solutions, with an emphasis on compliance, cost-effectiveness and spatial feasibility.

This webcast will examine the application of NFPA standards (including NFPA 70: National Electrical Code (NEC), NFPA 110: Standard for Emergency and Standby Power Systems and NFPA 111: Standard on Stored Electrical Energy Emergency and Standby Power Systems), as well as relevant considerations from the International Building Code and UL listings for backup power components. The presenters will also touch on applicable energy efficiency references, and how they may influence generator sizing and fuel choice.

The primary focus will be on on-site generation systems — diesel, natural gas and bi-fuel generators — and their integration into critical and legally required standby systems. Also explore power storage technologies such as uninterruptible power supply (UPS) systems, lithium-ion batteries and flywheels, examining their role in supplementing generator performance or mitigating transfer lags during outages.

Using case studies from various commercial projects, presenters will share real-world solutions to challenges such as system footprint limitations, total life cycle cost, operational complexity and evolving technology options. The webcast will also touch on key design documentation elements, including selectively coordinated protective device schemes and optional single-line diagrams.

This session is intended for mechanical, electrical, plumbing and fire protection engineers with a working knowledge of electrical systems and will benefit both newer engineers and seasoned professionals seeking to stay current with codes and industry trends.

Learning objectives:

  • Identify key code requirements from NFPA 70, NFPA 110 and NFPA 111 relevant to generator and storage-based critical power system design in nonresidential buildings.
  • Evaluate generator system configurations (including fuel type, redundancy strategies and automatic transfer switching) that align with building type, occupancy and project constraints.
  • Assess storage technology options — such as UPS, lithium-ion and flywheel systems — for integration into critical power systems, including their pros, cons and footprint implications.
  • Apply real-world strategies to address space, cost and complexity challenges when integrating critical power systems into nonresidential facilities, based on project case studies.

Title: Critical power: Focus on data center power system design best practices

Date: April 30, 2026

Abstract:

Understand the components and configurations of electrical power systems used in data centers, including redundancy strategies and load prioritization typical to mission critical facilities.

Data centers are among the most power-critical facilities in modern infrastructure. For these buildings, continuous, high-quality power is not optional — it is essential for data integrity and business continuity. This webcast will focus on the engineering principles and design considerations behind critical power systems for these facilities, with an emphasis on electrical infrastructure.

Attendees will learn how to design resilient and efficient power architectures using accepted industry frameworks, including NFPA 70: National Electrical Code (NEC) and NFPA 110: Standard for Emergency and Standby Power Systems. The session will also reference ASHRAE Standard 90.1: Energy Standard for Buildings Except Low-Rise Residential Buildings and other applicable energy efficiency standards as they relate to power system performance, monitoring and integration with facility energy goals.

Key topics will include redundancy strategies (N, N+1, 2N), load prioritization, fault tolerance, transfer mechanisms and power quality. Presenters will discuss backup generation, uninterruptible power supplies (UPS), automatic transfer switches (ATS) and downstream power distribution equipment. Real-world examples and case studies will explore how these systems are implemented in practice, highlighting successful strategies and common missteps.

The webcast will also provide a brief overview of emerging technologies, such as lithium-ion UPS systems, intelligent circuit monitoring and modular power units, to help engineers understand how innovation is shaping future-ready designs.

For both new construction and existing facilities, this webcast will equip you with actionable insights to meet the demanding performance and reliability requirements of critical power applications.

Learning objectives:

  • Identify the key components and configurations of electrical power systems used in data centers, including redundancy strategies and load prioritization.
  • Apply relevant NFPA codes and standards — particularly NFPA 70 and NFPA 110 — to critical power system design and compliance.
  • Analyze power system challenges such as equipment failures, scalability limitations and energy inefficiencies and evaluate mitigation strategies.
  • Recognize current trends and emerging technologies influencing critical power design, such as lithium-ion UPS systems, real-time monitoring and modular infrastructure.

Title: Integrating lighting and controls with practical applications

Date: May 21, 2026

Abstract:

Unlock the potential of modern lighting and control systems by exploring how they integrate with smart building platforms to improve energy efficiency, occupant comfort and regulatory compliance. This webcast equips engineers with practical insights, emerging technologies and key code considerations for designing advanced lighting systems in a variety of nonresidential buildings.

Lighting systems in nonresidential buildings are evolving rapidly, driven by the convergence of energy efficiency mandates, occupant experience goals and smart building technologies. This webcast provides mechanical, electrical, plumbing and fire protection engineers — particularly those with a focus on electrical design — with a technical yet practical understanding of how to design, specify and integrate advanced lighting and lighting control systems across diverse building types such as schools, hospitals and office buildings.

The session begins with a brief overview of lighting system performance metrics and how they relate to efficiency, cost and regulatory compliance. From there, the presenters will examine how lighting control strategies — such as zoning, scheduling, occupancy sensing, daylight harvesting and tunable lighting — are applied in modern building designs to support human comfort, productivity and operational goals. The conversation will then shift to how lighting systems can interface with larger smart building platforms, including BACnet/IP, power over Ethernet networks and smart sensor-enabled infrastructure.

Real-world examples and case studies will illustrate how engineers are addressing integration challenges while meeting standards and certifications from Illuminating Engineering Society (IES), ASHRAE Standard 90.1: Energy Standard for Buildings Except Low-Rise Residential Buildings, LEED, Energy Star and the International Association of Lighting Designers (IALD). Code considerations such as those from NFPA 70: National Electrical Code (NEC) and energy compliance pathways will also be addressed.

Attendees will leave with a deeper understanding of the interplay between code-compliant lighting systems, emerging lighting technologies and integrated building system design.

Learning objectives:

  • Understand how lighting system design affects energy performance, occupant experience and compliance within integrated building systems across nonresidential applications.
  • Evaluate lighting control strategies — such as occupancy sensing, daylight harvesting and scheduling — for their effectiveness and compatibility within smart building environments.
  • Analyze how lighting systems interface with other building systems through communication protocols (e.g., BACnet/IP, PoE, IoT) and identify key considerations for seamless integration.
  • Apply relevant codes, standards and certifications — such as NFPA 70, ASHRAE 90.1, IES, LEED and Energy Star — to ensure lighting system integration aligns with project and regulatory requirements.

Title: How to manage the design of plumbing systems

Date: June 18, 2026

Abstract:

Gain practical insights into designing efficient and code-compliant plumbing, piping and pump systems for nonresidential buildings. This webcast covers essential standards, common design challenges and real-world solutions to help engineers optimize system performance and reliability.

Effective plumbing, piping and pump system design is essential for ensuring safety, performance and long-term reliability in nonresidential buildings. From domestic water systems and sanitary piping to hydronic systems and booster pumps, mechanical and plumbing engineers must balance functional demands with code compliance, energy goals and life cycle considerations. This webcast provides a practical, code-informed overview of plumbing and piping system design, with emphasis on integrating pumps appropriately into mechanical and plumbing applications.

Learn about common system configurations and component selection techniques for facilities such as schools, hospitals, data centers and office buildings. They will reference relevant codes and standards, including ASHRAE Standard 90.1: Energy Standard for Buildings Except Low-Rise Residential Buildings, American Society of Plumbing Engineers (ASPE) design standards, American Society of Mechanical Engineers (ASME) piping requirements and NFPA guidance for fire protection and mechanical systems. Practical examples and case studies will highlight pressure zone management, piping layout strategies, fixture demand and pump selection based on system performance criteria.

Participants will gain insight into coordination challenges across disciplines and explore ways to avoid common design pitfalls, such as inadequate system sizing, poor equipment placement and inefficient pump control strategies. The session will also touch on water-saving technologies and controls where applicable to modern design goals.

The webcast is appropriate for mechanical, plumbing and fire protection engineers at all levels of experience. A basic understanding of building mechanical systems is expected.

Learning objectives:

  • Describe how plumbing and piping systems interact with pump performance and mechanical system requirements in nonresidential buildings.
  • Identify key design and layout considerations for piping systems in different building types, referencing applicable ASHRAE, ASME and ASPE standards.
  • Explain the criteria used to select and size pumps for plumbing and hydronic systems, including common control strategies.
  • Recognize common pitfalls in plumbing and pump system integration and explore solutions through real-world case studies.

Title: Critical power: Ways to navigate circuit protection’s vital role in buildings

Date: July 29, 2026

Abstract:

Ensure the safety and reliability of a building’s critical power infrastructure by mastering circuit protection design. This webcast guides engineers through practical strategies, NFPA code applications and real-world case studies that will help optimize protection systems.

Circuit protection plays a vital role in the reliability, safety and operational continuity of power systems in nonresidential buildings — especially in mission critical environments such as hospitals, data centers and educational institutions. As building systems grow more complex and energy-intensive, protection schemes must be designed to account for a broad range of conditions, from transient surges to sustained overloads and ground faults.

This session will provide a detailed overview of circuit protection fundamentals and explore how engineers can apply robust protection strategies across various building types. Presenters will examine the function and coordination of protective devices such as circuit breakers, fuses, surge protective devices and ground fault protection systems, as well as their integration into power distribution architectures. Attendees will learn how to align system design with applicable codes and standards, particularly those from NFPA 70: National Electrical Code (NEC) and NFPA 99: Health Care Facilities Code, while considering energy efficiency, maintainability and reliability.

Through real-world examples and case studies, the webcast will explore common design challenges such as balancing selectivity and coordination, managing short-circuit current ratings and protecting mission critical systems. The webcast will conclude with a brief look at emerging technologies such as smart breakers and digital coordination tools that may influence future design approaches.

This webcast is appropriate for all experience levels. Engineers attending will walk away with a stronger understanding of protection system design principles, applicable codes and how to make informed decisions for resilient electrical infrastructure in nonresidential buildings.

Learning objectives:

  • Explain the types and functions of circuit protection devices used in nonresidential power systems, including overcurrent, surge and ground fault protection.
  • Apply the relevant NFPA codes and standards — such as NFPA 70 and NFPA 99 — to circuit protection strategies in different building types, with an emphasis on compliance and reliability.
  • Identify key design challenges in coordination, short-circuit rating and system selectivity and explore practical approaches to address them through case-based examples.
  • Evaluate how emerging technologies, such as smart breakers and advanced monitoring systems, may support future circuit protection designs without compromising established best practices.

Title: Practical guidance for energy-efficient HVAC system design and integration

Date: August 25, 2026

Abstract:

Deepen your expertise in HVAC system design with a focus on energy efficiency and seamless integration with electrical and fire protection systems. Learn how to apply ASHRAE standards and leverage emerging technologies through case studies to optimize building performance.

This webcast will explore heating, ventilation and air conditioning (HVAC) system design essentials with a focused lens on energy efficiency and system integration specifically for engineers working on nonresidential buildings such as schools, office buildings and hospitals. While grounded in fundamental HVAC design principles, the webcast advances into the critical aspects of applying ASHRAE standards and leveraging emerging technologies that optimize energy performance and streamline integration with electrical and fire protection systems.

Attendees will deepen their understanding of key energy efficiency measures, including system zoning, variable air volume controls and demand-controlled ventilation, while examining practical examples and case studies drawn from real-world projects. Integration strategies will cover how electrical system design can complement HVAC controls to enhance overall building performance and compliance with evolving codes and standards.

The webcast balances technical depth suitable for mechanical engineers with solid HVAC knowledge and electrical engineers aiming to expand their expertise in energy-efficient HVAC integration. Participants will come away equipped to confidently design systems that meet stringent energy requirements and collaborate effectively across engineering disciplines to deliver resilient, efficient building systems.

Learning objectives:

  • Identify key energy efficiency strategies in HVAC system design aligned with ASHRAE standards for nonresidential buildings.
  • Analyze emerging technologies that support advanced integration of HVAC with electrical and fire protection systems.
  • Apply practical design considerations and integration techniques to optimize HVAC system performance and energy consumption.
  • Evaluate real-world case studies highlighting successful implementation of energy-efficient and integrated HVAC solutions.

Title: Ways to incorporate safe and effective battery energy storage systems

Date: September 29, 2026

Abstract:

Discover how to design and integrate battery energy storage systems in nonresidential buildings with confidence. This webcast provides practical guidance on NFPA codes, fire safety and real-world applications to help engineers optimize system performance while meeting critical safety and efficiency standards.

Battery energy storage systems (BESS) are increasingly integral to the design of modern nonresidential buildings, providing critical support for energy efficiency, power quality and resilience. This webcast explores the fundamentals and advanced considerations of BESS design, with a focus on the technologies used in schools, data centers, office buildings and hospitals.

Attendees will gain a comprehensive understanding of BESS components, operation and integration within building electrical systems. Key codes and standards — especially NFPA 70: National Electrical Code (NEC) and NFPA 855: Standard for the Installation of Stationary Energy Storage Systems, alongside other relevant ASHRAE— will be reviewed to ensure compliant and safe system design.

The webcast will progress from foundational concepts to more advanced technical and operational topics, emphasizing fire protection, safety protocols and energy efficiency considerations. Through detailed examples and case studies drawn from the presenters’ direct experience, engineers across mechanical, electrical, plumbing and fire protection disciplines will develop practical insights for effective BESS design tailored to diverse nonresidential applications.

This presentation is designed to accommodate all levels of prior knowledge while deepening understanding of this critical and evolving technology..

Learning objectives:

  • Define the key components and operational principles of battery energy storage systems commonly used in nonresidential buildings.
  • Identify and apply relevant NFPA codes and standards, including NFPA 70 and NFPA 855, in the design and installation of BESS.
  • Analyze fire protection and safety challenges associated with BESS and implement effective mitigation strategies in building design.
  • Evaluate case studies highlighting successful integration of BESS in various nonresidential building types with a focus on energy efficiency and system resilience.

Title: Ways to integrate fire detection and suppression in nonresidential buildings

Date: October 28, 2026

Abstract:

Ensure a building’s fire and life safety systems meet critical NFPA standards while optimizing design. This webcast offers engineers practical insights and proven strategies for effective fire detection and suppression, supported by examples and a look at emerging technologies.

Fire and life safety systems are critical components in the design and operation of nonresidential buildings such as schools, manufacturing buildings, office buildings and hospitals. This webcast provides an exploration of fire detection and suppression systems tailored for mechanical, electrical, plumbing and fire protection engineers.

Emphasizing key NFPA codes and standards — including NFPA 72: National Fire Alarm and Signaling Code and NFPA 13: Standard for the Installation of Sprinkler Systems — this presentation outlines established best practices that ensure occupant safety, regulatory compliance and operational reliability.

Attendees will gain insights into the integration of detection and suppression systems within complex building infrastructures while considering relevant standards and the owner’s project requirements.

Through case studies drawn from diverse building types, presenters will demonstrate practical application challenges and solutions. Additionally, the webcast will briefly address emerging technologies influencing fire safety system design.

Designed for engineers with mid-level experience, this presentation balances foundational knowledge with advanced considerations to enhance competency in designing and specifying effective fire and life safety systems..

Learning objectives:

  • Identify and interpret key NFPA codes and standards relevant to fire detection and suppression systems in commercial buildings.
  • Describe the design and integration of fire detection and suppression systems to meet safety and regulatory requirements.
  • Analyze practical challenges in system implementation using real-world case studies across various building types.
  • Recognize emerging technologies and their potential impact on fire and life safety system design.

Title: Innovations in data center HVAC: cooling and emerging technologies

Date: November 18, 2026

Abstract:

Discover how to design and implement state-of-the-art HVAC cooling systems for data centers that maximize energy efficiency and reliability. This webcast covers both foundational principles and forward-looking technologies — including liquid and immersive cooling — while navigating key ASHRAE standards and engineering challenges.

The rapid growth of data centers globally has made efficient and reliable heating, ventilation and air conditioning (HVAC) design more critical than ever. This webcast provides a comprehensive overview of HVAC cooling strategies tailored specifically for data centers with a focus on mechanical engineers responsible for cooling system design. Attendees will explore traditional cooling methods alongside cutting-edge trends that promise enhanced energy efficiency and operational reliability.

Guided by industry-recognized codes and standards, including ASHRAE Standard 90.1: Energy Standard for Buildings Except Low-Rise Residential Buildings and ASHRAE Standard 90.4: Energy Standard for Data Centers, this session reviews best practices for energy-efficient HVAC design, highlighting the balance between performance, redundancy and sustainability. Presenters will share proprietary case studies demonstrating innovative solutions to unique cooling challenges.

The discussion will address airflow management, chilled water systems, direct expansion units and advanced cooling technologies such as liquid cooling and immersive cooling techniques. Attendees with basic knowledge will gain foundational insights, while more experienced engineers will benefit from exposure to advanced strategies shaping the future of data center HVAC design.

This webcast empowers design professionals to optimize cooling system performance, comply with evolving energy standards and adapt to emerging trends critical to the sustainability and reliability of modern data centers.

Learning objectives:

  • Identify key HVAC cooling methods for data centers, including traditional and emerging technologies.
  • Interpret and apply relevant energy efficiency standards from ASHRAE 90.1 and 90.4 to data center HVAC design.
  • Analyze airflow management and redundancy considerations essential for reliable and efficient cooling systems.
  • Evaluate advanced cooling trends and innovative solutions through real-world case studies illustrating unique challenges and outcomes.

Title: Critical power: Do you know how to design emergency and standby power systems?

Date: December 16, 2026

Abstract:

Ensure uninterrupted power supply in a mission critical facility by mastering essential design principles, key NFPA codes and emerging power technologies. This webcast delivers practical insights and case studies to help engineers optimize power system reliability and compliance.

Critical power systems are essential for ensuring uninterrupted electrical service in nonresidential buildings. This webcast reviews the design, implementation and operational challenges of backup, standby and emergency power systems with a strong emphasis on reliability and resiliency.

Targeted primarily at electrical engineers, the discussion integrates key NFPA codes and standards — including NFPA 70: National Electrical Code (NEC) and NFPA 110: Standard for Emergency and Standby Power Systems — to ground design decisions within regulatory frameworks.

Attendees will explore the latest advancements in critical power technology, including grid integration strategies and emerging remote monitoring and control solutions. The session will address the practical design challenges that engineers face in creating robust, efficient power systems that comply with evolving standards and energy efficiency goals. Through case studies and examples, presenters will illuminate best practices for life cycle cost management and maintaining system reliability under diverse operational conditions.

This webcast balances foundational knowledge with advanced insights, preparing engineers to anticipate future trends and implement resilient power systems that meet rigorous performance and compliance requirements.

Learning objectives:

  • Understand the distinct roles and technical requirements of backup, standby and emergency power systems in nonresidential buildings, aligned with NFPA standards.
  • Analyze design challenges and solutions for improving system reliability and resiliency, incorporating emerging technologies such as advanced monitoring and grid integration.
  • Evaluate the impact of energy efficiency considerations on critical power system design and life cycle costing.
  • Apply relevant NFPA codes and industry best practices to develop compliant, efficient and future- ready critical power system designs.