The Roadmap to Zero Carbon is an ambitious vision that will help Swarthmore College eliminate 98 percent of greenhouse gas emissions from on-site fossil fuel combustion and purchased electricity, in order to reach our goal of carbon neutrality by 2035.
Is Swarthmore College carbon neutral?
In 2010, the College committed to achieving carbon neutrality no later than 2035. Significant steps have been taken since then to improve overall campus energy efficiency. The Energy Plan is Swarthmore’s plan to take this commitment to carbon neutrality to the next level.
What will the Energy Plan do?
The energy plan will eliminate most on-campus fossil fuel combustion by transitioning to electrified, reliable, and decarbonized renewable energy for the Swarthmore College campus. These changes will result in less than 50,000 metric tons of carbon dioxide equivalents (MTCDE) released into the atmosphere from the College over the next 30 years versus the 350,000 MTCDE released if the College does nothing.
How much will the Energy Plan cost?
The projected cost of implementation is estimated to be $69 million.
How does the geoexchange plant fit into the Energy Plan?
The geoexchange plant will replace Swarthmore’s high-pressure steam system which provides heat to campus buildings. Originally built in 1911, the steam system is antiquated and relies on the combustion of fossil fuels, mostly natural gas, to function. In contrast, the geoexchange system is a highly efficient zero-carbon energy system. Replacing the outdated steam system with the geoexchange system — including the geoexchange plant, heat pumps, and heat recovery systems — is a key part of making our campus energy efficient and combustion-free.
If the new plant is electric, where will the carbon-free electricity to power the plant come from?
Swarthmore College is working with other local colleges to develop an off-site renewable energy generation facility using solar photovoltaic technology that will put new, renewable electricity onto our electrical grid equivalent to the College’s projected electrical demand. Our electrical grid is operated by PJM Interconnection, a company that operates the electrical grid for all or parts of Delaware, Illinois, Indiana, Kentucky, Maryland, Michigan, New Jersey, North Carolina, Ohio, Pennsylvania, Tennessee, Virginia, West Virginia and Washington, D.C.
What will the Energy Plan do?
The energy plan will eliminate most on-campus fossil fuel combustion by transitioning to electrified, reliable, and decarbonized renewable energy for the Swarthmore College campus. These changes will result in less than 50,000 metric tons of carbon dioxide equivalents (MTCDE) released into the atmosphere from the College over the next 30 years versus the 350,000 MTCDE released if the College does nothing.
How much will the Energy Plan cost?
The projected cost of implementation is estimated to be $69 million.
If the new plant is electric, where will the carbon-free electricity to power the plant come from?
Swarthmore College is working with other local colleges to develop an off-site renewable energy generation facility using solar photovoltaic technology that will put new, renewable electricity onto our electrical grid equivalent to the College’s projected electrical demand. Our electrical grid is operated by PJM Interconnection, a company that operates the electrical grid for all or parts of Delaware, Illinois, Indiana, Kentucky, Maryland, Michigan, New Jersey, North Carolina, Ohio, Pennsylvania, Tennessee, Virginia, West Virginia and Washington, D.C.
Is Swarthmore College carbon neutral?
In 2010, the College committed to achieving carbon neutrality no later than 2035. Significant steps have been taken since then to improve overall campus energy efficiency. The Energy Plan is Swarthmore’s plan to take this commitment to carbon neutrality to the next level.
How does the geoexchange plant fit into the Energy Plan?
The geoexchange plant will replace Swarthmore’s high-pressure steam system which provides heat to campus buildings. Originally built in 1911, the steam system is antiquated and relies on the combustion of fossil fuels, mostly natural gas, to function. In contrast, the geoexchange system is a highly efficient zero-carbon energy system. Replacing the outdated steam system with the geoexchange system — including the geoexchange plant, heat pumps, and heat recovery systems — is a key part of making our campus energy efficient and combustion-free.