Our commitment to the community and environment.

Bell AI Fabric and British Columbia: building for tomorrow
How we handle water, noise and power
These are the questions that come up most. Here is how each one works.
Protecting local water and sharing our heat
Bell’s proposed Upper Nicola data centre will operate with an advanced closed-loop liquid cooling system, meaning water is not consumed as part of our facility operations.
Unlike older or water-intensive cooling designs, this facility will not rely on evaporative cooling towers, open water systems, or a continuous municipal water supply for cooling. Instead, the cooling system will be filled once during commissioning with a specialized technical fluid – a form of ultra-purified water mixed with non-toxic glycol and corrosion inhibitors to protect the piping, pumps, and specialized high-density AI cooling equipment.
Cooling methods vary based on climate and local values. While some data centres consume water continuously, our closed-loop design was chosen specifically to protect the Nicola Valley watershed and align with environmental stewardship priorities raised by the community. Because the system is sealed, the fluid continuously circulates, capturing heat from the computing equipment.
Crucially, this same closed-loop cooling system serves as the engine for our proposed community heat exchange. Rather than simply venting the captured thermal energy outside, the cooling loop transfers the surplus heat to infrastructure designed to support future community needs including residential, industrial and agricultural operations. The fluid itself will not be discharged, evaporated, or regularly replaced as part of normal operations.
Water use at the data centre will be strictly limited to standard building needs, such as washrooms, staff use, cleaning, and fire protection. Community water will not be used for data centre cooling. This design ensures that the Upper Nicola facility will operate responsibly and without impacting both the community and broader Nicola Valley water systems.
Built to be a quiet neighbour
Bell operates its AI data centres responsibly within the communities where they are located. For our Upper Nicola facility, acoustic performance will be prioritized through careful site planning, engineering, equipment selection, and building design.
This facility is not designed with large open-air fan walls or evaporative cooling towers. The advanced liquid cooling and engineered heat rejection equipment significantly reduce the noise profile often associated with older data centre designs.
Key acoustic mitigation measures in place include:
- Professional acoustic modelling to ensure sound levels are minimized at nearby property lines.
- Equipment selection and placement that prioritizes sound performance alongside mechanical efficiency.
- Building orientation, setbacks, and enclosure designs tailored to the municipal airport location to reduce off-site noise transmission.
- Acoustic attenuation for mechanical and electrical equipment, including barriers, silencers, and engineered controls.
- Strict compliance with noise guidelines and applicable regulatory requirements.
Where backup generators are required for reliability, they will be used strictly for emergency backup and scheduled testing. Generator systems feature acoustic enclosures and are tested under controlled conditions consistent with our operating permits.
Recycling our energy for local agriculture
Bell designs its AI data centres with energy integration as a core component, rather than treating server heat as a waste product.
At Upper Nicola, we plan to implement a community heat exchange program to reuse the surplus thermal energy captured by our cooling system for future community infrastructure and industrial needs, including aggrotech (greenhouses). The recovered heat can be made available and directed to support greenhouse operations, agricultural processing, and adjacent industrial facilities in the surrounding lands. This direct reuse will help lower overall regional energy consumption and reduces greenhouse gas emissions.
By seamlessly integrating digital infrastructure with future local industries, the Upper Nicola data centre acts as a long-term energy asset, delivering on B.C.'s broader sustainability and decarbonization objectives.
Roads, traffic and infrastructure
All project-specific road, access, and service upgrades around the site will be fully funded by Bell, not local taxpayers. Any ongoing maintenance or future expansion activity will be guided by a detailed traffic management plan coordinated with the Upper Nicola Band to protect local traffic flow.
A milestone investment in B.C.’s Nicola Valley
Bell intends to develop a state-of-the-art AI data facility at Upper Nicola. We understand that housing advanced tech infrastructure in the B.C. Interior brings important questions from the community. Our commitment is to operate this facility responsibly, ensuring it aligns with the values, economy, and unique environment of the region. We created this page as a clear, factual resource to share exactly how this facility will be designed and run with Upper Nicola residents in mind.
Driving regional economic growth
This facility will do more than just bring high-tech investment to Upper Nicola. It establishes the region as a critical engine for B.C.’s digital economy. We anticipate the site will generate long-term financial benefits for the community, including potential ongoing technical employment opportunities and an anticipated boost to the local tax base, helping to strengthen British Columbia's position as a world-class AI hub.

Prioritizing local talent and partnerships
We are committed to making sure our ongoing operations directly benefit the Upper Nicola community. Bell’s strategy focuses on training and employing local and Indigenous professionals, tradespeople, and suppliers whenever possible, supporting a highly skilled, locally based workforce in high-tech infrastructure operations and maintenance.
Your questions, answered
As we look to power Canada’s AI-driven future from Upper Nicola, our commitment to the community, the local economy and the natural environment of the Nicola Valley remains our top priority.
Water usage
Will water be used in our data centre?
No, the data centre will not use community water for cooling. The closed-loop, zero water cooling system will be filled once and will run in a sealed loop to totally eliminate the need for community water. Water usage will be strictly limited to everyday building needs (bathrooms, staff, cleaning, fire suppression).
What is a closed-loop system?
Think of the coolant in a car. It is filled once, sealed in, and used again and again. Ours works the same way: the fluid carries heat away from the equipment and stays in the loop, never discharged, evaporated, or replaced.
Will it use community water or groundwater?
No, this will not use any community water or groundwater. The closed-loop system will not connect to the community water system, nor will it connect to groundwater.
What fluid is used in the closed-loop?
The fluid contained in the closed system is a mixture of ultra-purified water, and non-toxic glycol and rust inhibitors. The fluid will be shipped to the data centre by an offsite supplier.
Will water be lost through evaporation?
No. Unlike older or more water-intensive designs, this facility will not use evaporative cooling towers, open water systems, or misting.
Will the data centre impact local water pressure or water rates?
No. Because the facility will not rely on the community water supply for continuous cooling, it will not draw the high volumes of water that could impact local water pressure or influence community water rates. Our connection to the municipal supply is strictly limited to bathroom, kitchen and fire suppression needs.
Noise
What are the potential sources of noise from a data centre?
Often, with data centres, the potential sources of noise include cooling equipment and backup power generators.
Will the data centre be excessively noisy for nearby residents?
No. The facility will operate with a low noise profile and will not impact the community. We purposely avoid using older styles of equipment (large open-air fan walls or evaporative cooling towers) that can create excessive noise.
What specific measures will be taken to control noise?
Measures include professional acoustic modelling, strategic building orientation, acoustic attenuation (like silencers and barriers). Furthermore, backup generators will feature acoustic enclosures and will be restricted to emergencies and scheduled, controlled testing.
Power
Who will supply the power, and is there enough capacity available in B.C.?
The proposed data centre will be powered by clean hydroelectricity from BC Hydro’s transmission system. The project will complete numerous, mandatory BC Hydro studies to ensure the availability of and sustainable delivery of the project’s electrical load.
What are the energy sources that power British Columbia's electricity grid?
British Columbia’s grid, managed by BC Hydro, is powered predominantly by clean, renewable hydroelectric power, making this facility highly sustainable.
How does the data centre's location benefit power delivery?
The development site at Upper Nicola is strategically located near existing, robust transmission power infrastructure at the Nicola substation. Electricity will be supplied to the data centre on a dedicated industrial feed entirely separate from the community’s local distribution system.
Who pays for electrical system upgrades related to the project?
Bell will fund required project specific upgrades associated with the development. These improvements are part of the project and will not shift costs to local residents or nearby municipalities.
Is the data centre designed to be energy efficient?
Yes. Beyond targeting excellent electrical efficiency, we also view server heat as a valuable energy resource. We are actively exploring ways to capture and reuse surplus heat from the facility to support both heating and cooling demands across local homes and future agriculture, and industrial operations in the surrounding lands.
What can AI do for Canada
Direct benefits (experienced firsthand in daily life)
Personalized healthcare
AI analyzes individual health data from wearables and medical records to provide early warnings for conditions (e.g., detecting irregular heartbeats) and highly tailored treatment plans.
Enhanced personal productivity
AI assistants automate mundane tasks like drafting emails, summarizing documents, and scheduling, freeing up hours of personal and professional time.
Customized education
AI-driven tutoring platforms adapt in real-time to a student’s unique learning pace and style, identifying knowledge gaps and providing targeted exercises.
Smarter, cheaper home management
AI-integrated smart home systems learn your habits to optimize heating, cooling, and lighting, directly reducing monthly energy bills.
Improved accessibility
Real-time language translation, advanced speech-to-text, and visual recognition tools allow individuals with disabilities or language barriers to navigate the world and communicate seamlessly.
Instant customer support
AI chatbots and virtual agents provide 24/7, immediate resolution for common consumer issues, eliminating long hold times on customer service calls.
Indirect benefits (experienced through systemic and industry improvements)
Accelerated medical breakthroughs
AI drastically reduces the time required for drug discovery and protein folding analysis, leading to faster development of life-saving medications and vaccines available to the public.
Safer, more efficient transportation
AI optimizes city traffic light grids to reduce congestion. Furthermore, as AI improves autonomous vehicle technology, it will systematically reduce traffic accidents caused by human error.
Lower cost of consumer goods
AI optimizes global supply chains, predicts inventory needs, and automates manufacturing. This reduces corporate waste and overhead, which translates to lower prices for everyday goods at the store.
Increased food security
"Precision agriculture" uses AI to analyze drone imagery and soil sensors, allowing farmers to optimize water and fertilizer use. This increases crop yields and helps stabilize grocery prices.
Environmental protection & grid stability
AI predicts energy demand and optimizes the distribution of renewable energy (like solar and wind) across power grids, reducing reliance on fossil fuels and lowering the frequency of blackouts.
Enhanced fraud detection
Banks and credit card companies use AI to analyze purchasing patterns in milliseconds, blocking fraudulent transactions before consumers even realize their data was compromised.
Research & development
Accelerated drug discovery
AI simulates how millions of molecules interact with biological targets, reducing the time to find viable drug candidates from years to months. For example, AI models that predict 3D protein structures allow researchers to design highly targeted treatments for diseases much faster and at a fraction of the traditional cost.
Advanced material science
AI rapidly tests chemical combinations virtually to discover new materials without needing physical trial-and-error in a lab. For example, discovering new, highly efficient compounds for solar panels, or developing longer-lasting, faster-charging solid-state batteries for electric vehicles.
Generative engineering design
Engineers input specific constraints (e.g., maximum weight, required strength, available materials), and AI generates optimal, often unconventional, physical designs. For example, designing lighter, stronger aerospace components that reduce airplane fuel consumption, which can lead to lower environmental impact and cheaper flight tickets.
Automated literature and data analysis
AI can instantly read, translate, and synthesize decades of global scientific papers, identifying hidden patterns that human researchers might miss. For example, cross-referencing thousands of historical medical studies to find new, effective off-label uses for existing, FDA-approved medications.
Complex systems modeling
AI processes massive datasets to simulate highly complex environments that traditional computing struggles to render accurately. For example, simulating plasma behavior to advance clean nuclear fusion energy or creating hyper-accurate climate models to help cities build better flood defenses.