Day Two

• How AI-driven rack densities, liquid cooling infrastructure, and heavier mechanical systems are redefining how structural systems to be designed and built
• Evaluating when multi-story design and vertical densification unlocks more megawatts per acre in land-constrained markets
• Structural and construction considerations that impact capacity delivery

• Investing in regional apprenticeship programs and establishing pre-apprenticeship pipelines so we can ensure a steady flow of labor to meet long term project demand
• Promoting industry backed initiatives to attract youth and new entrants: how can we work collectively as a region to increase our workforce?
• Leveraging safety programs, incentives, and awareness campaigns to make data center construction careers more appealing

Break into focused groups to examine how stronger alignment between design and field teams can drive efficiency across every phase and building system, exploring how collaboration across trades reshapes delivery strategies, staffing models, utility coordination, and prefabrication opportunities. Share tested wins, tackle the unique challenges of delivering data center projects, and connect with partners who can help improve sequencing, reduce delivery risk, and strengthen execution on upcoming builds.

Electrical & Power | Mechanical. HVAC & Cooling | Foundations & Civil | Walling, Structural & Architectural

• Applying AI-driven schedule generation and predictive forecasting to adjust plans proactively
• Establishing clear data inputs, validation checkpoints, and oversight protocols to ensure outputs are accurate, auditable, and fully trusted
• Implementing real-time progress tracking and automated workflow updates to maintain momentum and prevent minor slips from growing into major delays

• Establishing early, project-specific forecasting models to identify long-lead equipment risks upfront and synchronize procurement schedules with construction pacing to prevent downstream delays
• Building strategic partnerships with key manufacturers and implementing dual sourcing strategies to stabilize equipment availability, increase allocation reliability, and reduce exposure to single-supplier disruptions
• Implementing a flexible, scenario-based procurement framework that allows teams to pivot quickly in response to shifting lead times, financing constraints, or supplier market volatility, ensuring continuity across multiple campuses

• Aligning design, modelling and production coordination from day 1 to reduce downstream clashes
• Developing logistics, sequencing, and staging plans for transporting, storing and installing prefabricated assemblies to ensure modules arrive when needed, fit site constraints, and move smoothly into place without disrupting field activities
• Creating standardized installation protocols and multi-trade integration playbooks to connect plug-and-play modules consistently

• Adapting designs for Mid-Atlantic environmental extremes, from Virginia’s heat and humidity to Pennsylvania’s freeze–thaw cycles, to ensure long-term structural resilience and operational integrity in all conditions.
• Leveraging local contractor and engineering expertise to navigate regional climate challenges and proactively mitigate weather-driven schedule risks such as flooding, storms, and seasonal temperature swings
• Aligning national data center developers with local contractors and designers to combine global technical expertise with regional knowledge, reducing project risk and ensuring facilities are optimized for Mid-Atlantic conditions.

• Forecasting the regulatory and policy landscape shaping data center expansion
• Assessing competitive pressures from fast-growing alternative U.S. regions; what are the Mid-Atlantic strategic advantages we must retain and where must we adapt to stay competitive?
• Evaluating the push for retrofits to modernize equipment and capacity
• Planning for long-term regional resilience: how can we withstand weather, component scarcity, or geopolitical volatility without compromising deployment timelines?