Pennsylvania Green Growth Partnership Poster Presenters
The conference posters feature the research funded by the Pennsylvania Green Growth Partnership, funded through the generous support of the Ben Franklin Technology Development Authority and the Pennsylvania department of Community and Economic Development.
The PaGGP creates strategic partnerships between industry, university, economic investment groups and nonprofits to solidify and grow the Commonwealth's position as a national leader in the green building marketplace. PaGGP was founded in 2006 by Breen Alliance in Pittsburgh and the Engineering and Design Institute at Philadelphia University.
Pennsylvania Green Growth Partnership Core Members
Delaware Valley Green Building Council
Green Building Alliance
Green Building Addociation of Central Pennsylvania
Philadelphia Univeristy
Pennsylvania Green Growth Partnership Research Netowrk
Carnegie Mellon University
Drexel University
Pennsylvania State University
Temple University
University of Pittsburgh
Villanova University
Pennsylvania Green Growth Partnership Partners
Ben Franklin Technology Partners of Southeastern Pennsylvania
Pennsylvania Recycling Markets Center
Pennsylvania Technical Assistance Program (PennTAP)
Economic Development Activities
Drexel University
Adrian Lu
Jin Wen, PhD; Jared Langevin; Jameson Detweiler;
Sam Steffes; Prashanth Sidhartha
Current construction practice does not allow occupants of a residential setting to easily reconfigure the floor plans, even though peoples’ needs constantly change during their lifetime (having children, etc.). Therefore, people often have to either renovate their houses or apartments or to move to a larger one. Large quantity of material and energy are wasted during a renovation process because old wall and floor materials are very difficult to be re-used. Larger houses normally have much less occupancy density and are wasting more energy than smaller houses. There is a need for flexibility in residential building floor plans to allow the buildings to age with their occupants. Modular wall and floor systems can provide flexible floor planning, better indoor air quality, and improved energy efficiency. However, existing modular wall and floor systems are not suitable for residential settings. Therefore, the objective of this project is to design and test a prototype modular wall and floor system that is sustainable and appropriate for residential applications.
The commercialization of this system could create many new Pennsylvania jobs in several areas. New jobs would be created for continuing system development and refinement, for manufacturing of the system, and for installing the system in homes or apartments. The manufacturing would also maintain local jobs. The proposed project will advance the commercialization of technologies in Pennsylvania not only in the commercialization of the system itself, but also in the commercialization of potential complementary and add-on products. Our goal is to reach out to Pennsylvania companies to develop new finishes, carpet tiles, and accessories (such as modular outlet systems.) The system will primarily be constructed from Pennsylvania-sourced, environmentally friendly materials, thereby supporting the Pennsylvania economy and reducing energy used for shipping materials. This will also help maintain Pennsylvania jobs and support local manufacturing firms.
Dark Light: Low-Energy Modular Luminous Wall Surfacing System Using CeeLite LEC Technology
Drexel University
Eugenia Victoria Ellis, PHD, AIA
Jin Wen, PhD; Caroline Schauer, PhD; HP Huang
Dark Light is a luminous acoustical panelized system for low-level lighting conditions, such as night lighting, emergency lighting or theater lighting. Illumination is provided by electroluminescent technology, a light emitting capacitor (LEC) developed by the eastern Pennsylvania company CeeLite, and is similar in color temperature to natural daylight.
Dark Light is controlled using photosensitive motion-detectors that automatically turn on the light when a space is occupied. This lighting system is cost effective and energy efficient because it uses little electricity and generates minimal heat, and is made from recyclable materials. By powering this lighting system with photovoltaics, this could be marketed as a fully solar-powered system with battery back-up, with the additional potential use as emergency lighting.
Daylighting, Daylight Simulation and Public Health – Composite Solar Lighting
Drexel University
Nick Calcagni
Eugenia Victoria Ellis, PhD, AIA; Jin Wen, PhD;
Caroline Schauer, PhD; Neal B Handly, MD; Donald L McEachron, PhD
Recent research indicates that lighting has become a public health issue; people working in natural sunlight are more productive, more effective, and happier than when in artificial light. Natural changes in daylight balance a body’s circadian rhythm, determining sleeping and eating patterns, brain wave activity and hormone production. For proper health and energy savings, it is important to use or mimic the full spectrum of natural lighting. The Composite Solar Light Engine and Luminaire (CSLEL) evenly distributes natural daylighting supplied by a commercially available light harvester to building interiors that have limited access to exterior openings. The illumination level remains constant regardless of exterior weather conditions; the color temperature of the light emitted matches natural daylight and changes throughout the day to match diurnal conditions; the lighting level can be adjusted manually and can be turned off. We are presently looking for a Pennsylvania
industry partner for technology commercialization.
Improving Indoor Air Quality: Formaldehyde Emissions from Wood Composite Panel Products
Pennsylvania State University
Thomas Ruffing
Paul M. Smith; Nicole R. Brown
Recently there has been increased public awareness of indoor air quality issues in both residential and commercial structures. Reduction of formaldehyde, a known carcinogenic substance, is a primary goal of many indoor air quality improvement plans. Formaldehyde is a key component in many of the synthetic resins used to bond wood composite panel (WCP) products; therefore, these materials are often sources of formaldehyde in indoor spaces. Domestic and international governmental agencies and green building programs have recognized the importance of limiting formaldehyde emissions from WCPs used in interior applications and have placed limits on formaldehyde emissions for certain products. The current work provides an overview of formaldehyde emissions regulations and outlines opportunities to reduce formaldehyde emissions from composite wood products. Response to stricter formaldehyde emissions regulations will likely provide Pennsylvania chemical and forest products companies with opportunities to develop new, low emitting products for domestic and international markets.
Active Air Heater without Boiler
TASI (Technical Analysis & Services International, Inc.)
Susan Chang
Patricia Sawsik
An active air heater without boiler is an active air heater that combines an electric heater, a boiler and a fan in one. With 100% conversion from electricity to thermal energy and the high effectiveness of the heat transfer from heater to air, the active heater has the highest efficiency among all heaters in the market.
Benefits:
Save 15%-50% energy
Lower Equipment Cost
Commercialize Technology from Defense Research
Create 100 Jobs in 3 Years with 90% Manufacturing Jobs
Material made from By-product and made by PA Company
Heaters to be manufactured by PA company. IP of TASI
Deactivation of E. Coli Using Photocatalytic Process
Temple University
Dumu Zhou
A Cooper; Rominder Suri; Tony S Singh
Photocatalytic disinfection is environmentally sound and potentially cost effective, and therefore can be more easily applied in areas where cost factors have prevented other methods for the disinfection of water and air. Some potential applications include drinking water disinfection, removal of microbial contamination on solid surfaces, food sanitation, contaminations in homes/offices, airplanes, Department of Defense and industrial applications.
Reimaging a Suburban Office Park
Electrodeposited Thin Semiconductor Films for Novel Super Lattice Solar Cells Villanova University Electrodeposition of thin film semiconductors offers a low cost way of fabricating solar cells. With a novel solar cell structure comprising very thin alternating films of lead telluride and zinc telluride, the potential for high efficiency, as well as low cost, is possible. This paper presents progress to date on the deposition and structural and optical characterization of very thin films of lead telluride and zinc telluride.
Dr. Pritpal Singh
Ms. Sukriti Jain
