| Overall Rating | Gold - expired |
|---|---|
| Overall Score | 65.07 |
| Liaison | Yumiko Jakobcic |
| Submission Date | Feb. 28, 2014 |
| Executive Letter | Download |
Grand Valley State University
OP-8: Building Energy Consumption
| Status | Score | Responsible Party |
|---|---|---|
|
3.03 / 6.00 |
Amanda
Rodgers Graduate Assistant Sustainable Community Development Initiative |
Total building energy consumption, all sources (transportation fuels excluded):
| Performance Year | Baseline Year | |
| Total building energy consumption | 449,268 MMBtu | 458,347 MMBtu |
Purchased electricity and steam:
| Performance Year | Baseline Year | |
| Grid-purchased electricity | 184,073 MMBtu | 181,644 MMBtu |
| District steam/hot water | 13,160 MMBtu | 12,849 MMBtu |
Gross floor area of building space::
| Performance Year | Baseline Year | |
| Gross floor area |
4,998,817
Gross square feet
Date Revised: April 30, 2014
|
4,124,730 Gross square feet |
Floor area of energy intensive space, performance year::
| Floor Area | |
| Laboratory space | 46,000 Square feet |
| Healthcare space | 2,790 Square feet |
| Other energy intensive space |
Degree days, performance year (base 65 °F)::
| Degree days (see help icon above) | |
| Heating degree days | 6,311 |
| Cooling degree days | 954 |
Source-site ratios::
| Source-Site Ratio (see help icon above) | |
| Grid-purchased electricity |
3.14
Date Revised: April 30, 2014
|
| District steam/hot water |
1.20
Date Revised: April 30, 2014
|
Start and end dates of the performance year and baseline year (or 3-year periods)::
| Start Date | End Date | |
| Performance Year | July 1, 2012 | June 30, 2013 |
| Baseline Year | July 1, 2005 | June 29, 2006 |
A brief description of when and why the building energy consumption baseline was adopted:
Baseline was selected when the university first started reporting and was chosen as a reasonable starting point
A brief description of any building temperature standards employed by the institution:
University uses a BMS (Building Management System) for controlling startup, shutdown, setback, occupied and non-occupied temperature set points.
A brief description of any light emitting diode (LED) lighting employed by the institution:
The University has been researching LED lighting for several years. To date we have installed LEDs inside one entire building, an Arena, Parking Garage top deck, site high mast, site parking lots, site pathways, and traffic intersections. Future outside lighting is expected to be installed with LED lighting.
A brief description of any occupancy and/or vacancy sensors employed by the institution:
University makes use of infrared and motion occupancy sensors to control lights and more importantly the volume of conditioned air that is distributed to rooms. This method is used for many of our buildings. Also making use of Demand Control Ventilation (DCV).
A brief description of any passive solar heating employed by the institution:
Solar panels on the roof of an athletic building capture solar energy to help heat the water source in the locker rooms.
A brief description of any ground-source heat pumps employed by the institution:
The amount of ground-source heat pumps employed by the institution is very limited.
A brief description of any cogeneration technologies employed by the institution:
A brief description of any building recommissioning or retrofit program employed by the institution:
Recommissioning is done on a case by case basis. It is done by troubleshooting mainly and is not a stand-alone program. However the university has recommissioned some buildings by a third party.
A brief description of any energy metering and management systems employed by the institution:
The University does use a BMS for tracking most of the utilities with regards to utility consumption. Some buildings on some campuses still have manual meters for electricity. Natural gas, water and steam for the most part are metered and either through the BMS or manual reads are compiled into spreadsheets for a variety of reasons (tracking, monitoring, projections, estimates, etc.).
A brief description of the institution's program to replace energy-consuming appliances, equipment and systems with high efficiency alternatives:
Appliances are directed to be purchased as Energy Star compliant. Equipment such as HVAC is partially selected on energy efficiency as well as other factors. Systems are designed with the thought process of being energy efficient for the long term.
A brief description of any energy-efficient landscape design initiatives employed by the institution:
Landscape design is a project-driven plan. Projects are designed to use as little water as possible and not to rely on irrigation. They are designed to use run-off water whenever possible and to use natural vegetation in the area.
A brief description of any vending machine sensors, lightless machines, or LED-lit machines employed by the institution:
A brief description of other energy conservation and efficiency initiatives employed by the institution:
The University has a long history of implementing energy conservation and efficiency projects. More than 200 projects and procedures have been completed or established to help provide energy conservation. Those areas include temperature set points and controls, infrastructure improvements, lighting, equipment selections, system optimization and education to our students, staff and faculty.
The website URL where information about the institution’s energy conservation and efficiency initiatives is available:
Data source(s) and notes about the submission:
The information presented here is self-reported. While AASHE staff review portions of all STARS reports and institutions are welcome to seek additional forms of review, the data in STARS reports are not verified by AASHE. If you believe any of this information is erroneous or inconsistent with credit criteria, please review the process for inquiring about the information reported by an institution or simply email your inquiry to stars@aashe.org.