Sustainability Track: Sustainable Buildings
Session Moderator: Julian Wang
Because of its large energy expenditure and the abundance of homes, office buildings, and industrial complexes, the building sector is one of the most appropriate candidates for solar energy utilization. Energy from the sun can be used passively, actively, or both. More specifically, solar heat gains can reduce building heating loads in winter, and lighting loads during the day. Natural light can be beneficial to the occupant’s health and well-being. The building structure can support solar panels on the roof or integrated into the building skin. These PV (photovoltaic panels) can also produce electricity for appliances and electronics as well as supply energy for vehicles. The importance of these topics will be covered in the Building Session of the Sustainability Track.
Ash RaghebLawrence Technological University
Ash Ragheb is an Associate Professor at Lawrence Technological University in the College of Architecture and Design. Dr. Ragheb’s research focuses on building systems integration, energy efficiency, the integration of renewable energy technologies in design, environmental sustainability esp. reducing building environmental impact, often using quantitative methods, computer simulation, and Life Cycle Assessment LCA as methods. His research on environmental profiling of buildings using LCA has been funded by AIA prestigious UpJohn grant in 2009. He has published numerous peer reviewed papers in national and international conferences and journals including ARCC, ASES, PLEA, Int’l J of LCA
Presentation Title: Environmental Analysis of Solar Technologies Using Life Cycle Analysis (LCA): An Emphasis on Building Integrated Solar Thermal Systems.
Presentation Description: This research highlights the relationship between ongoing standardization of solar systems and their environmental performance. This is a controversial debate that slows down the implementation of such systems to the level of household. Research on the influence of the building integrated solar thermal systems on building life-cycle performance provides crucial information in reducing their environmental impacts. This shows how these systems are significant energy savers and contribute to the creation of a more sustainable buildings.
Dale MillerUniversity of Colorado Boulder
Dale Miller is a native Coloradoan, and attended the University of Colorado for his undergraduate and graduate studies in physics, writing, rhetoric and the teaching of science. He has been faculty since 1999 in the Environmental Studies program at the University of Colorado-Boulder. In 2008 Dale and his wife Leslie completed building a solar home in Lakewood, Colorado, for which the city honored them with its Sustainability Award. Dale has served on the Lakewood Planning Commission for 7 years; for 3 years prior he served on a citizens advisory committee tasked with making recommendations for re-writing the city’s zoning codes, focusing on encouraging sustainable building, walkable and bikeable streets, and urban agriculture.
Presentation Title: 13 Years of a Carbon Neutral Home
Presentation Description: We completed building our carbon neutral home 13 years ago in part to show it could be done, and have thus kept thousands of pounds of carbon each year from entering the atmosphere. Since that time, countless homes have been built in the U.S., with few actually coming close to the low emission levels of our home. We lament this reality, and continue to speak out about it.
Steve StevensFounder, Chief Sustainabilist, Curator,
Education: BA Math/Physics – Honors/ High Distinction / Phi Beta Kappa. MS / AbD Computer Science.
Career: AT&T BELL TELEPHONE LABORATORIES, New Jersey / Illinois / Korea – Country Manager.
Publications: Book Chapter and Many National and International Conference Talks with Papers.
Post Retirement: Research and Development of Energy Transformation Approaches to EXISTING RESIDENTIAL STRUCTURES – Using Cultural Transformation to Personal Responsibility.
I have integrated a lifetime of work and education (living on 3 continents and traveling to over 60 countries) into an approach to Climate based upon Applied Personal Responsibility- to Do It Yourself slowly but surely. Results – a Minus 7 ton carbon footprint on a 1979 home with powering car and growing Citrus in Golden Colorado (was 15 ton without car and citrus to start). The Gas Line is Terminated.
Over-production of ~ 8 MWH of PV after meeting all residential and transport needs. This DEMO home is less than 1 KM West of NREL and Features Water Capture as well as Multi Solar Integration and Structural Features. ASES & CRES LIFE MEMBER.
Presentation Title: Building a Culture of Personal Climate Responsibility and Personal Energy Action – A Prototype
Presentation Description: With the reticence of Government Action – and Reversal of Government Progress, We CANNOT leave the climate/energy transformation to “THEM”. Individuals must TAKE SERIOUS PERSONAL RESPONSIBILITY for NEGATING PERSONAL CARBON FOOTPRINTS. A Cultural Transformation to Personal Action to get
to (and beyond) Net Zero Carbon (Total Electrification with Renewables of Residence / Transport) and Producing Personal food. This presentation shows how this has been done (DIY) to a 1979 residence in Golden, Colorado less than 1 KM from NREL using over 90% recycled and repurposed materials. Temperatures can exceed 100 F and drop to Minus 20s. This argues for the Cultural Change which would Normalize this activity.
William YoungFlorida Renewable Energy Association
Worked as Senior Research Engineer at the Florida Solar Energy Center for 22 years before retiring. Studied photovoltaic applications for disaster relief, buildings, mobile units, and power applications. Worked included solar thermal and alternative fuels. Started working in solar at General Electric in 1980, and presently working at President of Florida Renewable Energy Association with ASES.
Presentation Title: Real Life Performance of Florida’s SunSmart Emergency Shelters Program
Presentation Description: This presents an actual real life PV application developed to provide emergency power in disaster to 118 Florida school shelters across the state to power critical items. Over the 7 years of operation, some systems were actually used during a disaster for emergency power. What worked and did not work in the design and operation was researched during 2020 program inspection and evaluation providing real life research and results that effected each system performance.