1. 1 Hillel House Project Review 4/3/09 Boiler Green Initiative

2. 2 Introduction  Matt Leon – Senior, OLS (Project Leader)  Rachel Machbitz – Freshman, Engineering (Project Liaison)  Emily Pohlman - Senior, Environmental Science  Jessica Zuponcic - Freshman, Engineering Hillel House Boiler Green Initiative

3. 3 Community Need  Relevance to the project partner What is the need that is being addressed?  Hillel House currently uses many of the same structures and appliances that were established with the house’s initial construction in 1950 and are in need of updating.  Our goal is to reduce electricity consumption by 15% and gas consumption by 20-30% Hillel House Boiler Green Initiative

4. 4 Community Need  Initial contact was made with the organization for the analysis of potentially establishing a green roof on the building.  Reducing building energy consumption will allow more funds to be directed to the students in the organization and improve the building. Hillel House Boiler Green Initiative

5. 5 Goals of the Project  The BGI team will create a strategic plan to maximize energy savings with minimal capital input and implement small scale repairs and additions.  Our team will not be able to install large scale projects such as window replacement, electrical rewiring, or heating and cooling system changes. Hillel House Boiler Green Initiative

6. 6 Goals of the Project  What is the success criteria? The success of this project will come from reducing energy costs for Hillel House at a rate that will justify the initial investment. We don’t want to spend more than $4000 on the rain garden. Hillel House Boiler Green Initiative

7. 7 Last semester’s plans  Finished a Feasibility Report  Winterized Building  Eliminated Non Feasible Concepts Geothermal Green Roof  Continued of Feasible Concepts Winterization Windows Solar Rain Garden Hillel House Boiler Green Initiative

8. 8 Feasibility Chart Hillel House Boiler Green Initiative RequirementOption 1Option 2Option 3 WinterizationCeiling insulation, outlet insulation Wrap windows, replace broken panes, caulk windows Crawl space insulation WindowsReplace All Current Windows Replace windows with wall section Panorama Window Film SolarPassive solar heating/lighting Solar water heatingSolar power generation Rain GardenGround Level Water Storage Above Grade Water Storage Below Grade Water Storage FeasibleNot FeasiblePossible

9. Infrared Heat Loss Images 9

10. 10 Winterization  Insulation Keeps energy from escaping from the building and into the atmosphere, which keeps cost down.  Covering Windows with Plastic Keeps energy from escaping. Similar to insulation.  Replacing Broken Panes Replacing these panes will directly affect energy loss because we are fixing a hole in the wall. Boiler Green Initiative

11. Comparison of Winterized Windows 11 BeforeAfter

12. 12 Windows: Overview  Window Replacement Quotes from Two Companies Bee Window Best Window and Door Company  Developed Pros/Cons of Each Company/Quote Hillel House Boiler Green Initiative

13. 13 Windows: Background Information  Terminology Solar Heat Gain Coefficient U-Factor  Other Options Panorama Window Film Wall Sections installed Hillel House Boiler Green Initiative

14. Infrared Heat Loss Images 14

15. 15 Windows: Data  Best Window and Door had a Lower U-Factor (.28 versus.31 for Bee Window)  Similar SHGC (Solar Heat Gain Coefficient)  Number of Windows vs. Price Bee Window: 71 Windows for $44,313.00 Best Window and Door: 82 Windows for $46,318.23 Best Window and Door has Lower Cost per Window ($564.86/Window) Boiler Green Initiative

16. 16 Solar: Overview  Goals of Solar Energy Reduce electricity use from grid Creative use of passive solar to reduce heating/cooling needs Extend the roof overhang on the building in order to block sun in summer Hillel House Boiler Green Initiative

17. 17 Solar: Proposed Solutions  Passive solar Use natural lighting to reduce interior lighting needs Can be utilized while minimizing window surface area during replacement Hillel House Boiler Green Initiative www.eere.energy.gov

18. Need for Rain Garden  Cuts down on water consumption  Reuse of rain water  Aesthetically appealing with the plants  Learning tool about wetlands for the community and Purdue by making a Rain Garden brochure 18

19. Rain Garden: Overview  A shallow constructed depression that is planted with deep-rooted native plants & grasses.  Easiest, most cost effective, and aesthetically pleasing thing that can be done to reduce the contribution to storm water pollution.  Eliminates the need for an irrigation system.  Provides the opportunity to fix the current walkway. 19 Boiler Green Initiative http://www.cleanairgardening.com

20. Storage Calculations 20 Definite Integral Calculation-- Depth of reservoir: 1feet 11 2/3 inches Diameter of reservoir: 10feet 2 inches We are going to capture 600 gallons per rain event.

21. 21 Boiler Green Initiative

22. 22

23. 23 Boiler Green Initiative

24. 24 Preliminary Budget Item AmountIndv. Price Total Cost Caulking245.00120.00 Shrink-It Window Sealer Kit2013.29265.80 Window Pane177.00 Rain Garden Includes cost of of storage and plants 1 4000 TOTAL$4392.80 Hillel House Boiler Green Initiative

25. 25 Plans for rest of this semester Finish brochure for winterization Best Windows and Door to install new windows Implementation of passive solar solution Install landscape/rain garden Finish brochure for rain garden Hillel House Boiler Green Initiative

26. Questions? 26 Boiler Green Initiative