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28 Crowdis Street Elevation Plan and Full Plan PackageDRAWING TABLE OF CONTENTS SHEET NO. DESCRIPTION 1.Front Left Isometric View 2.Front Right Isometric View 3.Cross Section at Frame 4.Front Elevation 5.Left Elevation 6.Right Elevation 7.Roof Plan 8.Sill-Floor Plan 9.Face Elevation Overlay 10.Cross Section Overlay 11.General Notes and Legend 12.Foundation Plan 13.Floor Framing Plan 14.D-16 Roof Connection Detail 15.D-135 Endwall Connection Detail 16.D-156 Foundation-Floor-Sill Connection Detail 17.Shop Drawing B.1 - Frame Detail 18.Shop Drawing S.1 - Sill Plan Detail 19.Shop Drawing G.1 - Frame Spacing & Glass Specs DELTA ENGINEERS, INC TABLE # 29-A Pitch Rise 3 Run 12 Height, front, h ft 8.000 Span, horizontal, L, ft 10 Vertical load, uniform, W, lbs/ft 206 Ground Snow Load assumed: 50 PSF Vertical load, triangular, Wsv, lbs/ft 0 Horizontal wind load, Wlw, lbs/ft 130 Wind Load Assumed: 127 MPH tan theta 0.250 alpha 0.800 alpha *(1 + alpha )1.440 alpha**2(Wlw*L)832.000 0.125alpha + 0.167 0.267 0.625alpha + 0.5 1 WL 2060.000 Wsv**2 0 Horizontal Reaction HA (positive to right), lbs -291.133 Horizontal Reaction HC (positive to right), lbs -749.444 alpha + tan theta 1.050 0.5 alpha + tan theta 0.65 Vertical Reaction VA (positive up), lbs 1400.310 Vertical Reaction VC (positive up), lbs 659.690 alpha **3*Wlw*L**2 6656 WL**2 20600 Wsv**2*L 0 Front (Wall) Section Top (Roof) Section Axial Force, lbs 1400.310 Axial Force, lbs 749.444 Shear Force, lbs Shear Force, lbs At A 291.133 At B 1400.310 At B -749.444 At C 659.690 Maximum Positive Moment, ft lbs 325.995 Maximum Positive Moment, ft lbs 950.660 Negative Moment at B, ft lbs -1835.56 Maximum Negative Moment, ft lbs -1835.556 Maximum Shear Force, lbs 1400.310 Design Bending Moment, ft lbs 1835.556 D'Alessandro Sunroom Salem, MA DELTA ENGINEERS, INC. TABLE # 29-A (continued) Design of Structure Selected Section Width, in. 3 Depth, in. 6 Vertical (Wall) Member Top (Roof) Member Axial Force, lbs 1400.310 Axial Force, lbs 749.444 Shear Force, lbs 291.133 Shear Force, lbs 1400.310 -749.444 Design Moment, ft lbs 1835.556 Front height, h,ft 8.000 Span, L, ft 10.000 Design Values, psi Fb 2400 Fv 200 Fc (parallel) 1700 Fc (perpendicular) 650 E 1800000 E min 900000 Section Properties Coefficient of curvature, Cc 0.74 Depth factor 1 Load duration factor 1.33 Combined factor 1 b, in. 3 d, in. 6 Area of cross section, in**2 18.000 Section modulus, in.**3 18.000 Moment of inertia, in.**4 54.000 Combined Stress Analysis- Roof Member Actual compression stress, fc, psi 41.636 Actual bending stress, fb, psi 1223.704 Slenderness ratio, L/d 20.000 FCE 1849.500 fc/Fc 0.024 fc/FCE 0.023 fb/Fb 0.510 Combined stress ratio 0.522 < 1 OK > 1 NG Maximum shear stress fv 116.693 fv/Fv 0.583 < 1 OK Vertical Member Analysis > 1 NG Slenderness ratio 32.000 FCE for column 722.461 α = FCE/FC 0.425 c 0.9 α/c 0.472 (1 + α)/2c 0.792 cp 0.399 Adjusted Fc 677.560 Actual fc 77.795 Stress ratio 0.115 < 1 OK > 1 Revise section Report Title: Lawrence/Colleen D'Alessandro Report Date: 9/12/25, 11:09 AM 1 of 2 Compliance Certificate Project Information Project Title: Energy Code: Location: Construction Type: Project Type: Project Sub Type: Glazing Area: Climate Zone: Project No: All Electric: Is Renewable: Has Battery: Has Charger: Has Heat Pump Lawrence/Colleen D'Alessandro 2023 Massachusetts Stretch Energy Code Salem, Massachusetts Single Family Addition None 56% 5a (6268 HDD) 1753122 false false false false true Construction Site: Owner/Agent: Designer/Contractor: 28 Crowdis Street Salem , MA 01970 Lawrence/Colleen D'Alessandro 28 Crowdis Street Salem , MA 01970 160 Southbridge Street Brady Built Sunrooms Auburn , MA 01501 508-798-2600 Project Notes: As per R301.2.1.1.1: This addition is categorized as a CATEGORY IV SUNROOM (conditioned, thermally isolated) Report Title: Lawrence/Colleen D'Alessandro Report Date: 9/12/25, 11:09 AM 2 of 2 Envelope Assemblies Assembly Gross Area or Perimeter Cavity R-Value Cont. R-Value Prop. U- Factor/ F-Factor Req. U- Factor/ F-Factor Prop. UA Req. UA Roof: Cathedral Ceiling 192 21.0 0.0 0.048 0.024 4 2 Fixed IG Unit: Wood Frame 109 0.240 0.550 26 60 Floor: All-Wood Joist/Truss 234 30.0 0.0 0.033 0.033 8 8 Front Wall: Wood Frame, 16" o.c. 145 21.0 0.0 0.057 0.045 3 2 Sliding Window: Vinyl Frame 93 0.300 0.300 28 28 Left Wall: Wood Frame, 16" o.c. 132 21.0 0.0 0.057 0.045 4 3 Sliding Windows: Vinyl Frame 31 0.300 0.300 9 9 Fixed IG Unit: Wood Frame 31 0.240 0.300 7 9 RIght Wall: Wood Frame, 16" o.c. 132 21.0 0.0 0.057 0.045 3 3 Fixed IG Unit Copy: Wood Frame 31 0.240 0.300 7 9 Door: Glass Door (over 50% glazing) 41 0.300 0.300 12 12 Compliance: Passes using UA trade-off Compliance: 23.4% Better Than Code Max UA: 145 Your UA: 111 The % Better or Worse Than Code Index reflects how close to compliance the house is based on code trade-off rules. It DOES NOT provide an estimate of energy use or cost relative to a minimum-code home. Slab-on-grade tradeoffs are no longer considered in the UA or performance compliance path in REScheck. Each slab-on-grade assembly in the specified climate zone must meet the minimum energy code insulation R-value and depth requirements. Compliance Statement The proposed building design described here is consistent with the building plans, specifications, and other calculations submitted with the permit application. The proposed building has been designed to meet the 2023 Massachusetts Stretch Energy Code requirements in REScheck-Web and to comply with the mandatory requirements listed in the REScheck Inspection Checklist. Name - Title Signature Date Page 1 of 3 PERFORMANCE CALCULATOR 15.January.2020 Prepared for Marco Gabrielli By Bean, Tim tbean@solarseal.com Brady Built Make-up Name Make-up Icon Glass 1 & Coating Glass 2 & Coating Visible Light Ultraviol et Solar Energy Thermal Properties Transmit tance Reflectance Trans UV (uv %) Transmit tance Reflectan ce Solar Heat Gain Coefficient (SHGC) U-Value Visible (v %)v % out v % in Solar (e %)e % out Winter Night (Btu/hr·ft²·F) Summer Day (Btu/hr·ft²·F) Bronze/SB60 Vitro Solarbro nze® glass (IGDB) Vitro Solarba n® 60 (IGDB) on Vitro Clear glass USA (IGDB) 46 8 10 10 23 19 0.34 0.24 0.22 Calculation Standard: NFRC 2010 Bronze/SB60 Outdoors Vitro Solarbronze® glass (IGDB) Thickness = 3/16" (5mm) #1 ----- #2 -----GLASS 1 10% Air, 90% Argon, 1/2" (12.7mm)GAP 1 Vitro Clear glass USA (IGDB) Thickness = 3/16" (5mm) #3 Vitro Solarban® 60 (IGDB) #4 -----GLASS 2 Total Unit (Nominal) = 7/8 in Slope = 90° Estimated Nominal Glazing Weight: 4.73 lb/ft² Indoors Important Notes Calculations and terms in this report are based on NFRC 2010. The performance values shown above represent nominal values for the center of glass with no spacer system or framing. Laminated products: It is not guaranteed that modeled laminated configurations will be compliant with relevant laminated safety regulations unless specifically declared for Guardian products. It is the user’s sole responsibility to assess if the final laminated product should be certified according to relevant standards and ensure compliance with laminated safety regulations. Additional consequences for laminated glass with coating facing interlayer (due to contact between coating and interlayer) may include (not limited to): significant decrease of safety performance for some coating and interlayer combinations; loss of thermal insulation performance of surface facing the interlayer; noticeable color change; other performance deterioration. Non-specular products (translucent or diffuse): The performance measurement for non-specular (translucent or diffuse) materials such as translucent interlayers or acid etched glass surface, or surface with ceramic frit is limited by the current experimental technologies. Since measurements capture physically only a part of the resulting radiation, calculated performance results provided herein and based on such measurements are not compliant with any standard (including EN 410) and may only be used as a general reference. Actual values may vary significantly based upon exact fabrication process, as well as type, thickness and color of used non-specular material. Please note that the Thermal Stress Guideline is only a general guide to the thermal safety of a glazing, and it is not a replacement for detailed thermal stress analysis. Explanation of Terms Visible Light Transmittance (Tv, %) is the percentage of incident light in the wavelength range of 380 nm to 780 nm that is PERFORMANCE CALCULATOR Page 2 of 3 transmitted by the glass. Ultraviolet (UV) Transmittance (Tuv, %) is the percentage of the incident solar radiation transmitted by the glazing in the 300 nm to 380 nm range. Solar Energy Direct Transmittance (Te, %) is the percentage of incident solar energy in the wavelength range of 300 nm to 2500 nm that is directly transmitted by the glass. Visible Light Reflectance Outdoors/Indoor (Rv out/in, %) is the percentage of incident visible light directly reflected by the glass. Solar Direct Reflectance Outdoors/Indoors (Re out/in, %) is the percentage of incident solar energy directly reflected by the glass. Solar Energy Absorptance (Ae, %) is the percentage of the sun's energy that is absorbed by glass. U-Value is the glazing parameter that characterizes the heat transfer through the central part of the glazing, i.e. without edge effects, and expresses the steady-state density of heat transfer rate per temperature difference between the environmental temperatures on each side. US Standard units are Btu/hr·ft²·F and SI / Metric units are W/m2 K. Relative Heat Gain (RHG) is the total net heat gain to the indoors due to both the air-to-air thermal conductance and the solar heat gain. US Standard units are Btu/hr.ft² and SI / Metric units are W/m². Shading Coefficient (sc) is Solar Factor divided by 0.87. It is a measure of the solar heat gain referenced to 3 mm clear glass which has the designated value of 1.00. Solar Heat Gain Coefficient (SHGC) is the sum of the solar direct transmittance and the secondary heat transfer factor of the glazing towards the inside, the latter resulting from heat transfer by convection and longwave IR-radiation of that part of the incident solar radiation which has been absorbed by the glazing. Light-to-Solar Gain (LSG) is the ratio of visible light gain to solar gain. LSG = (Visible Transmittance) / (SHGC) Color Rendering Index in transmission, D65 (Ra) is the change in color of an object as a result of the light being transmitted by the glass. Weighted Sound Reduction Index (Rw) is a single-number quantity which characterizes the airborne sound insulation of a material or building element over a range of frequencies. Sound Transmission Class (STC) is a single-number quantity which characterizes the airborne sound insulation of a material or building element over a range of frequencies. Disclaimer This performance analysis is provided for the limited purpose of assisting the user in evaluating the performance of the glass products identified on this report. Spectral data for products manufactured by Guardian reflect nominal values derived from typical production samples or CE Initial Type Testing and subject to variations due to manufacturing and calculation tolerances. Spectral data for products not manufactured by Guardian were derived from the LBNL International Glazing Database and have not been independently verified by Guardian. Guardian recommends a full-size mock-up be approved. The values provided herein are generated according to established engineering practices and applicable calculation standards. Many factors may affect glazing characteristics, including glass size, building orientation, shading, wind speed, type of installation, production process and others. The applicability and results of the analysis are directly related to user inputs and any changes in actual conditions can have a significant effect on the results. It is the responsibility of the users of the analysis to ensure that the intended application is appropriate and complies with all relevant laws, regulations, standards, codes of practices, processing guidelines and other requirements. Guardian makes no guarantee that any glazing modeled herein is available from Guardian or any other manufacturer. The user has the responsibility to check with the manufacturer regarding availability of any glass type or make-up. While Guardian has made a good faith effort to verify the reliability of the tools used for this analysis, they may contain unknown programming errors that could result in inaccurate results. The user assumes all risk relating to the results provided and is solely responsible for selection of appropriate products for user's application. Guardian makes no express or implied warranty of any kind with respect to the tools used by Guardian and this analysis. There are no warranties of merchantability, non-infringement or fitness for a particular purpose with respect to the tools used by Guardian and this analysis and no warranty shall be implied by operation of law or otherwise. The only warranties applicable to Guardian products are those separately provided in writing for each product. In no event shall Guardian be liable for direct, indirect, special, consequential or incidental damages of any kind relating to or resulting from PERFORMANCE CALCULATOR Page 3 of 3 use of Guardian tools and analyses. Trademarks owned by Guardian Industries, LLC and/or its affiliates may be registered in the United States and other jurisdictions. All other trademarks are property of their respective owners. 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