Wind Load Report - Naples Residence

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Wind Load Report - Naples Residence 1. Site & Building Data Roof Type: Gable Wind Speed (ult): 115 mph Exposure Category: C Enclosure Class: Enclosed Building Width (W): 20 ft. Building Length (L): 23 ft. Eave Height (h e ): 9 ft. Foundation Height (h f ): 0 ft. Roof Pitch: 3 /12 Eave Overhang (OH e ): 0 ft. Gable Overhang (OH g ): 2 ft. 3. Design Assumptions and Notes Code Standard: ASCE 7-10 Geometry: Regular-Shaped Bldg. Height Class: Low-Rise Building Notes: 2. Parameters & Coefficients Topographic Factor (K zt ): 1.0 Directionality Factor (K d ):.85 Roof Angle (θ): 14.04 deg. Mean Roof Height (h): 10.25 ft. Ridge Height (h r ): 11.50 ft. Pos. Internal Pressure (+GCpi): +0.18 Neg. Internal Pressure (-GCpi): -0.18 Velocity Pressure Exp. Coeff. (K h ): 0.85 @ z=h Velocity Pressure (q h ): 24.43 psf End Zone Width (a): 3.00 ft. Zone 2/2E Dist.: 10.00 ft. 4. Design Loads Top Chord Dead Load: 7 psf Bottom Chord Dead Load: 10 psf Truss/Rafter Spacing: 24 in. o/c 4. Design Wind Pressures: MWFRS Envelope Procedure Load Case A: Transverse Direction Surface GCpf 1 0.48 7.29 16.08 2-0.69-21.25-12.46 3-0.44-15.05-6.26 4-0.37-13.54-4.75 1E 0.72 13.30 22.09 2E -1.07-30.54-21.74 3E -0.63-19.70-10.90 4E -0.56-17.99-9.20 2OH -0.69-16.86 2EOH -1.07-26.14 3OH -0.44-10.66 3EOH -0.63-15.30 2OH+W -0.69/-0.7-33.96 2EOH+W -1.07/-0.7-43.24 b) External Pressure Coefficients linearly interpolated from Fig. 28.4-1 ASCE 7-10. c) Design building for all wind directions, 4 load patterns per load case. d) Total horizontal shear shall not be less than that by neglecting roof wind forces. e) Min. wind load for enclosed or partially enclosed bldg.: 16 psf wall, 8 psf roof. f) Design pressures are for strength design, multiply by 0.6 for ASD. ph. (425) 420-5715 www.medeek.com 1

Load Case B: Longitudinal Direction Surface GCpf 1-0.45-15.39-6.60 2-0.69-21.25-12.46 3-0.37-13.44-4.64 4-0.45-15.39-6.60 5 0.40 5.37 14.17 6-0.29-11.48-2.69 1E -0.48-16.12-7.33 2E -1.07-30.54-21.74 3E -0.53-17.34-8.55 4E -0.48-16.12-7.33 5E 0.61 10.50 19.30 6E -0.43-14.90-6.11 2OH -0.69-16.86 2EOH -1.07-26.14 3OH -0.37-9.04 3EOH -0.53-12.95 2EOH+W -1.07/-0.7-43.24 3EOH+W -0.53/-0.7-30.05 b) External Pressure Coefficients linearly interpolated from Fig. 28.4-1 ASCE 7-10. c) Design building for all wind directions, 4 load patterns per load case. d) Total horizontal shear shall not be less than that by neglecting roof wind forces. e) Min. wind load for enclosed or partially enclosed bldg.: 16 psf wall, 8 psf roof. f) Design pressures are for strength design, multiply by 0.6 for ASD. Torsional Load Cases Surface Load Case GCpf 1T A - 1.82 4.02 2T A - -5.31-3.11 3T A - -3.76-1.57 4T A - -3.39-1.19 5T B - 1.34 3.54 6T B - -2.87-0.67 b) Pressures designated with a "T" are 25% of full design wind pressures. c) Torsional loading shall apply to all 8 load patterns using the figures shown. d) Design pressures are for strength design, multiply by 0.6 for ASD. e) Torsional Design Exceptions: One story bldg. with h 30 ft, Two stories or less framed with light frame construction, Two stories or less with flexible diaphragms. ph. (425) 420-5715 www.medeek.com 2

5. Wind Load Calculations 1.) Lateral Loads - Transverse Direction: Lateral Loads on Roof Diaphragm with Positive Internal Pressure 0.0 plf 0.0 plf 23.0 plf 29.5 plf 22.6 plf 16.0 plf 39.2 plf 45.8 plf 31.9 plf 25.3 plf 0.0 plf 0.0 plf 48.6 plf 36.6 plf 35.9 plf 19.7 plf 6.00 ft. 17.00 ft. 2 ft. 23 ft. 2 ft. 618 lbs 539 lbs a) (-) signs signify wind lateral forces acting opposite to the direction of the arrows shown. Wind Base Shear (ASD) Load Case A: Transverse Direction Load Case Walls (lbs) Roof (lbs) Roof Overhangs (lbs) Total Lateral Load (lbs) R 1 (lbs) R 2 (lbs) Positive Internal Pressure 1463-256 -51 1156 618 539 Negative Internal Pressure 1463-256 -51 1156 618 539 Roof Pressure = 0 1463 0 0 1463 794 669 Min. Pressures (8 psf, 16 psf) 994 276 48 1318 659 659 a) Bottom half of wall neglected in tributary area calculations. ph. (425) 420-5715 www.medeek.com 3

2.) Lateral Loads - Longitudinal Direction: Lateral Loads on Roof Diaphragm with Positive Internal Pressure 61.9 lbs 53.1 lbs 126.4 lbs 17.1 lbs 40.2 plf 31.0 plf 28.4 plf 14.5 plf 3.00 ft. 17.00 ft. 20 ft. 651 lbs 587 lbs a) (-) signs signify wind lateral forces acting opposite to the direction of the arrows shown. c) Where the length of building (L) exceeds 4X the mean roof height (h), wind drag forces should additionally be considered. Wind Base Shear (ASD) Load Case B: Longitudinal Direction Load Case Walls (lbs) Gable Ends (lbs) Roof (lbs) Total Lateral Load (lbs) R A (lbs) R B (lbs) Positive Internal Pressure 979 259 0 1238 651 587 Negative Internal Pressure 979 259 0 1238 651 587 Roof Pressure = 0 979 259 0 1238 651 587 Min. Pressures (8 psf, 16 psf) 864 240 0 1104 552 552 a) Bottom half of wall neglected in tributary area calculations. ph. (425) 420-5715 www.medeek.com 4

3.) Roof Truss Reactions: Roof Truss/Rafter Reactions: Transverse End Zone Max. Horz. 1 = 40 lbs Max. Uplift 1 = 127 lbs 127 lbs 62 lbs a) Strength design values multiplied by 0.6 to obtain ASD values. b) Windward loads may be positive or negative depending on pitch of roof. Roof Truss/Rafter Reactions (ASD) w/ Positive Internal Pressure Load Case Horizontal Load (lbs) Gross Uplift (lbs) Net Uplift (lbs) U 1 (lbs) U 2 (lbs) Transverse Int. Zone 19 436 23 30-7 Transverse End Zone 33 603 190 127 62 Longitudinal Int. Zone 23 416 3 25-22 Longitudinal End Zone 40 575 161 120 41 a) Gross Uplift calculations do not include any counteracting roof dead loads. b) Net Uplift calculations include counteracting roof dead loads multiplied by 0.6 per load case (7) ASCE 7-10. c) Strength design values multiplied by 0.6 to obtain ASD values for wind loads. d) Loads based on truss spacing calculated at 24" o/c. e) Negative values for horizontal load indicate load acting in windward direction (tranverse load cases). f) Negative values for uplift indicate net downward force (zero uplift). *Disclaimer: The calculations produced herein are for initial design and estimating purposes only. The calculations and drawings presented do not constitute a fully engineered design. All of the potential load cases required to fully design an actual structure may not be provided by this calculator. For the design of an actual structure, a registered and licensed professional should be consulted as per IRC 2012 Sec. R802.10.2 and designed according to the minimum requirements of ASCE 7-10. The wind load calculations provided by this online tool are for educational and illustrative purposes only. Medeek Design assumes no liability or loss for any designs presented and does not guarantee fitness for use. ph. (425) 420-5715 www.medeek.com 5