Christopher Hailstone brings a wealth of technical knowledge to the University of Nevada, Las Vegas, serving as a critical architect for the institution’s sustainable future. With a background rooted in engineering and a deep personal connection to the changing landscapes of the West, he leads the charge in translating complex utility data into actionable climate strategies. His work is central to the university’s ambitious goal of achieving carbon neutrality while maintaining the rigorous demands of a top-tier research facility.
The following discussion explores the intricacies of managing a massive campus energy portfolio, from the initial challenges of data recovery after a long leadership vacancy to the collaborative spirit required to modernize aging systems. We delve into the financial logic of utility rebates and the cultural shifts necessary to foster a community dedicated to waste reduction and energy efficiency.
Transitioning from mechanical and biomedical engineering to public sector energy management involves a significant shift in perspective. How did your early experiences with infrastructure influence your drive to eliminate emissions, and what specific challenges did you face when moving into a regional program specialist role?
I remember standing on the slopes and realizing that the very snow I loved was becoming a precarious resource due to shifting climate patterns. My five years spent with the U.S. General Services Administration opened my eyes to the sheer scale of energy required just to keep massive public buildings operational. Moving into a regional program specialist role required me to bridge the gap between technical engineering theory and the practical realities of public-sector budget constraints. It was a period of intense learning where I had to prove that efficiency wasn’t just a technical metric, but a necessary evolution for community-facing organizations.
Rebuilding a campus energy program after a multi-year vacancy requires a massive effort in data recovery and prioritization. How are you currently tracking consumption across lighting and HVAC systems, and what metrics are you using to determine which efficiency projects should be tackled first?
Stepping into a role that sat vacant for five years felt like uncovering a time capsule that needed immediate updating. My primary focus has been on establishing a robust tracking system for electricity, natural gas, and water usage across the entire UNLV campus. By monitoring these utility streams, I can identify specific outliers in HVAC and lighting performance that suggest mechanical failure or excessive waste. We prioritize projects based on a combination of potential carbon reduction and the immediate return on investment provided by utility incentives.
Large-scale energy conservation depends heavily on the technical expertise of the staff who maintain the physical systems daily. In what ways do you integrate feedback from electricians, plumbers, and landscapers into your decision-making process, and how does this collaborative approach improve long-term project outcomes?
I believe that the most effective energy strategies are built from the ground up, which is why I rely heavily on the tradespeople who know our infrastructure better than anyone. I spend a significant amount of time consulting with our electricians, plumbers, and landscapers because they see the day-to-day fluctuations and mechanical quirks of our campus. Their boots-on-the-ground expertise allows me to make informed decisions that go beyond what a spreadsheet can tell me. By integrating their feedback, we avoid the pitfalls of implementing systems that look good on paper but are difficult to maintain in the field.
Utilizing utility rebate programs for projects like LED lighting upgrades can provide immediate financial returns for public institutions. Could you walk through the process of identifying and securing these incentives, and explain how these savings are reinvested into broader electrification and renewable energy strategies?
Identifying these financial opportunities begins with a deep dive into programs like the NV Energy rebate initiatives that reward efficiency. A recent success story involved the Paul McDermott Physical Education complex, where we secured a rebate of more than $3,000 for a comprehensive LED lighting upgrade. These funds aren’t just a line item in a budget; they represent a proof of concept that efficiency pays for itself. By capturing these immediate savings, we can build a stronger financial case for more ambitious projects like campus-wide electrification.
Achieving net-zero carbon emissions by 2057 requires balancing long-term goals with immediate infrastructure needs. What are the primary hurdles to implementing full-scale electrification on a diverse campus, and what role does an R1 research status play in driving these sustainability innovations forward?
The road to net-zero carbon emissions by 2057 is paved with both technical hurdles and the need for institutional cultural shifts. As an R1 research institution, UNLV is uniquely positioned to act as a living laboratory for the very sustainability innovations we aim to implement. One of the primary challenges is retrofitting older, diverse building stock to support full-scale electrification without interrupting critical research activities. We have to be strategic, ensuring that our energy conservation goals go hand-in-hand with our identity as a pinnacle of academic excellence.
Reducing a carbon footprint often starts with individual choices like intentional shopping and keeping goods out of landfills. What specific strategies can people use to differentiate between necessity and impulsive trends while shopping, and how do secondhand marketplaces contribute to a more sustainable local economy?
I often tell people that the most sustainable product is the one you never actually had to buy. To combat impulsive shopping driven by FOMO, I encourage individuals to pause and ask how they will eventually recycle an item before they even reach the checkout. Utilizing secondhand marketplaces like O-Marché is a fantastic way to keep high-quality goods in circulation and out of our local landfills. Intentional shopping limits waste while simultaneously saving money, creating a more resilient local economy that values longevity over trends.
What is your forecast for the future of campus sustainability and net-zero energy goals?
I predict that the next decade will see a radical shift where energy management becomes inseparable from the core operations of higher education. We will move beyond simple efficiency upgrades and into a phase of total energy autonomy, driven by smart microgrids and decentralized renewable sources. As the climate continues to change, the pressure to reach our 2057 net-zero goal will only intensify, forcing us to become even more creative with our resource allocation. I see a future where UNLV isn’t just reacting to utility costs, but setting the standard for how a major urban campus can thrive in a carbon-constrained world.
