NBC Calculator Tool Manual

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NBC 9.36.5 Calculator Tool Manual Natural Resources Canada has provided a multi-application calculator tool for Microsoft Excel to support some of calculations required in the document, Guidelines for Using HOT2000 with the Performance Path of the 2010 National Building Code of Canada Subsection 9.36.5. An Appendix in the guidelines provides the relevant procedures and equations for performing the calculations manually. The calculator tool has been created to automate and simplify the process. Note that this calculator tool uses macros in Microsoft Excel. Users must have Microsoft Excel to use this calculator and macros must be enabled in Excel. This calculator tool is made up of three separate calculators that assist in performing the following calculations: Calculator 1: Converting Service Water Heating equipment s Thermal Efficiency (E t ) and Standby Loss (SL) to an approximate Energy Factor (EF). Calculator 2: Calculating an RSI-value estimate of a window s center of glass, edge of glass, frame and center of glass SHGC. Calculator 3: Calculating an RSI-value for a composite basement or walkout type foundation s insulation. References: Reference to the 2010 National Building Code of Canada will be prefaced with NBC. Reference to Manual Reference or Appendix Reference refer the reader to Guidelines for Using HOT2000 with the Performance Path of the 2010 National Building Code of Canada Subsection 9.36.5. Common Buttons: On the main menu page are the following buttons: English and Français for language selection. C:1: Energy Factor Conversion Calculator to access this calculator. C:2: Window Calculator to access this calculator. C:3: Composite Foundation Calculator to access this calculator. Within each individual calculator are the following buttons: Main Menu to return to the main menu page. English and Français for language selection. Calculate to perform calculations based on inputs. Reset to clear previous entries.

C:1 Energy Factor Conversion Calculator Manual Reference: Sections 5.11 and 6.7 Service Water Heating Appendix Reference: B.1: Approximation of Energy Factor from Thermal Efficiency and Standby Loss HOT2000 v10.51 uses Energy Factor to model the efficiency of Service Water Heating (SWH)/Domestic Hot Water (DHW) equipment. Many of the entries in NBC Tables 9.36.5.16 and 9.36.4.2 rate SWH as Standby Loss (S in %/hr or SL in W). To simplify the conversion of thermal efficiencies to Energy Factor this calculator has been created. Energy source Thermal Efficiency (E t %) Input Power (KBtu/h or W) Standby Loss type (%, BTU/hr or W) If Standby Loss Type % is selected, the tank volume in litres is required too. Standby Loss (W) Once the required inputs have been entered, click on Calculate. The calculation results will then be seen at the bottom of the calculator in the Outputs box. C:2 Window Calculator Manual Reference: Section 5.6.1 Fenestration Calculations and Modeling Appendix Reference: B.2: Adjusting Solar Heat Gain Coefficient and U-value for Fenestration The overall heat transfer coefficient (in RSI or U-value) and overall solar heat gain coefficient (SHGC) for windows are based on testing using standard-sized windows. The results are then applied to all windows of the same design regardless of size. For energy modeling in HOT2000, a window s overall heat transfer coefficient and overall SHGC must be adjusted to compensate for size effects. This calculator is designed to estimate a window s RSI-values for Center of Glass, Edge of Glass, Frame and the Center of Glass SHGC based on a window s specifications. Required inputs should be attainable based on the proposed house plans and by acquiring window details from the manufacturer. The calculation results may then be used in HOT2000 s Code Editor to create a User Defined window code. Overall U-Value (W/m² C)

Overall Solar Heat Gain Coefficient Window Height (mm) Window Width (mm) Frame Height (mm) Window Type Glazing Type Fill Type Spacer Type Frame Material Once the required inputs have been entered, click on Calculate. The calculation results will then be seen at the bottom of the calculator in the Outputs box. Note that the frame height is the average thickness of the window frame. C:3 Composite Foundation Calculator Manual Reference: Section 5.8.3.1 Basement and walkout type foundations Appendix Reference: B.3: Determining a Composite Foundation Added Insulation Effective RSI-value This calculator is to be used only for composite foundation insulation where a basement or walkout is present. It will assist in calculating the effective thermal resistance values of added interior or exterior foundation insulation where sections of the foundation have differing insulation values. HOT2000 s Composite RSI/R Calculator for basement and walkout type foundations use an incorrect value for the foundation wall effective RSIvalue and therefore should not be used. This calculator assumes that the insulation is placed on the basement wall as is shown in HOT2000 s Insulation Configuration Button but varies around the basement s perimeter. Foundation material type Perimeter fractions Effective RSI-value of added insulation for each fraction Please note the following requirements: For each Section used, input the length of wall as a perimeter fraction. If one Section applies to 50% of the basement wall perimeter, input 0.5 for that Section. Ensure that the sum of the Sections and Remainder add up to a Total of 1. Enter the Effective RSI value for the added insulation only. The Foundation Material selection will account for the RSI-value of the basement wall itself. If there is interior and exterior insulation, use the calculator to calculate the effective RSI-values of each separately.

Once the required inputs have been entered, click on Calculate. The calculation results will then be seen at the bottom of the calculator in the Outputs box. Foundation Example: For this exercise, a concrete basement has both interior and exterior insulation. To simplify calculations, consider the walls to be 0.25 m thick. 10 m 5 m 4.5 m 8.5 m 5.5 m 3.5 m EXTERIOR Exterior perimeter total: 37 m Linear meters of insulation coverage: 10 m + 8.5 m = 18.5 m Percentage of exterior wall that is insulated. 18.5 m/37 m = 0.5 (50%) Calculate the effective RSI-value of the insulation, which is 38 mm of extruded polystyrene IV. According to NBC Table A-9.36.2.4.(1)D, extruded polystyrene types 2-4 have an RSI of 0.035(m².K)/W per mm. 0.035 x 38 mm = 1.33 RSI In C.3: Composite Foundation Calculator perform the following steps:

1. Select Foundation Material Concrete 2. Input Section 1 Perimeter Fraction as 0.5 3. Input Effective RSI as 1.33 4. Click on Calculate The calculated Effective RSI may now be used in HOT2000 s Exterior Added Insulation field as a User Specified value. INTERIOR Interior perimeter total: 35 m Linear meters of insulation coverage: 4.5 m + 5.5 m + 3.5 m = 13.5 m Percentage of interior wall that is insulated. 13.5 m/35 m = 0.39 (39%) Determine the effective RSI-value of the insulation, which is a 2x4 stud wall with R-12 batts. According to NBC Table A-9.36.2.4.(1)D, an R-12 batt has an RSI of 2.11. In C.3: Composite Foundation Calculator perform the following steps: 1. Select Foundation Material Concrete 2. Input Section 1 Perimeter Fraction as 0.39 3. Input Effective RSI as 2.11 4. Click on Calculate The calculated Effective RSI may now be used in HOT2000 s Interior Added Insulation field as a User Specified value.