SBA won't try to claw back $155 million in controversial COVID grants to celebrities
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When you factor in home, school, work, and other public spaces, the average person spends 90% of their time indoors. Given this, it’s probably no surprise that the built environment is responsible for 42% of the world’s carbon (CO2) emissions. This number is too big and the likelihood of it increasing is high when you consider aging buildings, extreme weather, a rising number of powered devices, and the energy demands of AI and high-performance computers. One way for workplaces to lower it is to go back to school and take a page from today’s campus IT leaders and administrators.
In addition to monitoring energy consumption, shifting high demand processing needs to off-peak times, and taking advantage of government incentives including energy tax credits and grants, campus leaders have uncovered a new way to get a better handle on energy consumption. One that can potentially lower their buildings’ carbon emissions and be replicated in the workplace.
The problem with estimating energy needs
Energy consumption and distribution are often based on assumptions. For example, an ad hoc observation could tell you that sections of the library have fewer people on Saturday night versus Monday night. And that student projects and hackathons bring together clusters of people hovering over a table or in a lab.
You can also assume energy consumption is higher in dorms on weekday mornings as students get ready for classes while administration buildings are still dark, therefore requiring less power in the administration buildings. Also, for university administrators, budgeting meetings require a larger conference room while one-on-one conversations are in private offices. For these different activities, energy needs vary.
These assumptions may be helpful but are not entirely accurate; otherwise CO2 emissions would be decreasing. The HVAC and IT teams have likely already factored the ebb and flow of foot traffic and occupancy into buildings for heating and cooling systems. However, they can’t know the frequency and timing of ad hoc meetings. Meanwhile, the time and cost of powering up an area for a short meeting can be untenable, which explains why a space is often set to a consistent room temperature regardless of usage.
Our buildings today don’t understand what users need or intend. I’m sure you remember evenings when you were studying or working alone in a classroom or office, only to have the lights suddenly shut off—forcing you to do a little dance to turn them back on. The situation is similar with HVAC systems. In many buildings, a single rooftop unit cools the entire space, so if one person feels hot in a room and sets the thermostat to “low,” the system might crank up the AC dramatically, wasting a lot of energy. These reactive responses are inefficient for building systems. The future lies in leveraging spatial intelligence to understand how users interact with space and to predict future needs and trends.
Use AI to replace assumptions with actual data
Little is known about understanding how humans use campus buildings and the office, yet that is changing. Instead of assumption-based decisions, campuses are tuning in to how students and staff use the buildings. For a while, the benefits of occupancy trackers, productivity tools, and cameras were touted, but those are incomplete at best and invasive at worst.
This is why higher education institutions are tapping into newer technologies that combine AI and body heat sensing technology with anonymity to better understand how humans use indoor space. In addition to providing insight into foot traffic and occupancy, human movements can tell you the frequency of ad hoc meetings and the need for collaborative versus individual space based on how humans interact on a regular basis.
The institutions and organizations using these newer technologies aren’t interested in who is in the space, nor are they capturing that data; they are focused on how the space is being used.
Campus insights are transferable to the workplace
Campus energy demands are not unlike workplace energy demands. In many instances, both have a mix of older and newer buildings, fluctuating needs for individual work and group collaboration, and fluid foot traffic and occupancy due to shifts in return to office policies. Additionally, each campus and company have distinct corporate cultures.
When we have a complete and accurate picture of how indoor space is used by humans, it leads to a better distribution of heating and cooling systems to meet the needs of the people in them. As a result, we see:
These types of insights flow into cost savings on energy and maintenance, lower carbon footprints, greater return on technology investments, and higher retention.
In the workplace, it’s clear that employees are now in the office more regularly. In a January 2025 report, JLL cites rental rates are trending upwards and leasing has cemented post-pandemic highs in the last three consecutive quarters. What’s more, Q4 volume was at least 92% of pre-pandemic averages.
As organizations try to make the office a place employees want to be, it is worth taking a closer look at innovations on campuses that can make a difference in the well-being of employees and the planet.
Honghao Deng is the CEO and cofounder of Butlr, an MIT Media Lab spinout.
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