In 2015, the University of Hawaii (UH) and the Hawaii Legislature established a goal for the UH university system to be net-zero by Jan. 1, 2035. Of all the campuses in the UH system, the University of Hawaii Maui College is on target to be the first to supply 100% of its energy needs through on-site photovoltaic systems coupled with battery storage, and it will do so 16 years ahead of schedule.
When it becomes operational in 2019, the UH Maui College PV plus storage system will be able to eliminate the campus’s fossil fuel-based energy use. The project is part of a partnership with Johnson Controls and Pacific Current and is currently in its second phase. Phase one saw the implementation of energy efficiency measures at UH Maui College and across all of the UH campuses. Phase two includes additional energy efficiency upgrades and the installation of the on-site solar PV coupled with battery storage.
UH Maui College Physical Plant Manager Robert Burton looks at battery array. Photo courtesy University of Hawaii.
Phase two will bring the total on-site capacity to 2.8 MW of solar PV and 13.2 MWh of battery distributed energy storage at UH Maui College. Phase two will reduce the fossil fuel energy consumption across all of the five UH campuses by ~14 GWh annually (45%) and add ~13 GWh renewable energy generation.
By the end of phase two, the UH Oahu campuses will reduce their use of fossil fuel for energy by 98% (Leeward Community College), 97% (Honolulu Community College), 74% (Kapi’olani Community College), and 70% (Windward Community College).
Photo courtesy University of Hawaii.
Related Stories
| Sep 7, 2014
Building the cladding palette: panels, rainscreens, and veneers [AIA course]
When it comes to cost, performance, and aesthetics—not to mention maintenance and long-term resilience—the evaluation of cladding materials and façade systems is more complex than ever. This course is worth 1.0 AIA CES HSW learning units.
| Aug 11, 2014
New guide for prevention of thermal bridging in commercial buildings
The guide aims to overcome obstacles with respect to mitigating thermal bridging to reduce energy consumption in buildings.
| Aug 4, 2014
Facebook’s prefab data center concept aims to slash construction time in half
Less than a year after opening its ultra-green, hydropowered data center facility in Luleå, Sweden, Facebook is back at it in Mother Svea with yet another novel approach to data center design.
| Jul 30, 2014
German students design rooftop solar panels that double as housing
Students at the Frankfurt University of Applied Sciences designed a solar panel that can double as living space for the Solar Decathlon Europe.
| Jul 25, 2014
Grocery stores choosing Green Globes for building sustainability certification
The Green Building Initiative (GBI) has announced a wave of Green Globes certifications for new grocery stores, including New Seasons Markets, Whole Foods, Price Chopper, Aldi’s, Harris Teeter, Wegmans, and Publix.
| Jul 17, 2014
A harmful trade-off many U.S. green buildings make
The Urban Green Council addresses a concern that many "green" buildings in the U.S. have: poor insulation.
| Jul 11, 2014
Are these LEGO-like blocks the future of construction?
Kite Bricks proposes a more efficient way of building with its newly developed Smart Bricks system.
| May 22, 2014
Facebook, Telus push the limits of energy efficiency with new data centers
Building Teams are employing a range of creative solutions—from evaporative cooling to novel hot/cold-aisle configurations to heat recovery schemes—in an effort to slash energy and water demand.
| May 22, 2014
Big Data meets data centers – What the coming DCIM boom means to owners and Building Teams
The demand for sophisticated facility monitoring solutions has spurred a new market segment—data center infrastructure management (DCIM)—that is likely to impact the way data center projects are planned, designed, built, and operated.
| May 20, 2014
Kinetic Architecture: New book explores innovations in active façades
The book, co-authored by Arup's Russell Fortmeyer, illustrates the various ways architects, consultants, and engineers approach energy and comfort by manipulating air, water, and light through the layers of passive and active building envelope systems.
