Integrating Laboratory Controls and Installations for a World-Class Research Hub
How GDI Ainsworth advanced controls, HVAC, and energy recovery strategy powers the University of Alberta’s cutting-edge CCIS facility.
Project Details
Location
Edmonton, Canada
Number of Buildings
1 - 85,000 ft² facility
System Implemented
Integrated laboratory controls, advanced HVAC systems, energy management strategies, heat recovery systems, process-load cooling, and specialized laboratory installations
Project Goal
Deliver a fast-tracked construction solution capable of supporting complex laboratory environments, interdisciplinary research, and high-performance energy requirements
Impact at a Glance
Delivered Canada’s first facility of its kind, enabling unprecedented cross-disciplinary scientific collaboration
Integrated laboratory controls supporting radiation labs, fluid dynamics labs, wet/dry physics labs, and multiple teaching theatres
Advanced energy efficiency through recycled chilled water systems, glycol run-around coils, and enthalpy wheel heat recovery
Achieved LEED Silver certification, reinforcing sustainable design and operational excellence
Challenge
The Centennial Centre for Interdisciplinary Science (CCIS) required an exceptionally large and technically demanding infrastructure installation. The project involved integrating laboratory controls, metering systems, and energy management strategies within a challenging architectural footprint—while also meeting complex laboratory installation requirements across multiple specialty research spaces. The scale and speed of construction amplified the need for precise coordination and technical innovation.
Methodology
Ainsworth approached the fast-tracked project with a deeply collaborative delivery model, working alongside consultants, general contractors, and specialty trades to ensure alignment at every phase. The team prioritized early coordination of mechanical and electrical systems, enabling all equipment, controls, and energy systems to fit within the architectural constraints. Innovative energy strategies—including process load cooling and advanced heat recovery—were incorporated into the design to support long-term sustainability. Throughout the project, proactive problem-solving and continuous communication ensured smooth integration of all laboratory systems and metering infrastructure.
Solution
Installed 750,000 CFM of primary air-handling equipment to support large-scale laboratory ventilation needs
Integrated 250 low-flow, variable-volume fume hoods with manifolded exhaust systems
Installed 900 Phoenix Venturi air valves for precise laboratory airflow and pressure control
Implemented 131 heat pumps to support distributed heating and cooling throughout the facility
Deployed a radiant cooling system to enhance thermal comfort and energy efficiency
Designed and installed a dedicated instrument cooling water system
Applied innovative process-load cooling using recycled chilled water to reduce energy consumption
Maximized heat recovery through glycol run-around coils and enthalpy wheels
Coordinated mechanical, electrical, and controls installations to meet complex laboratory requirements within challenging architectural constraints
The Ripple Effect
Strengthened the University of Alberta’s position as a global leader in interdisciplinary science
Supported long-term operational sustainability through advanced energy recovery strategies
Provided a LEED-certified environment that will foster innovation
