SHEAR CONNECTION: W BEAM WITH SHEAR PLATE ONE-WAY SHEAR CONNECTION TO W COLUMN WEB

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1 of 18 SHEAR CONNECTION: W BEAM WITH SHEAR PLATE ONE-WAY SHEAR CONNECTION TO W COLUMN WEB Description:Detailed Report 17

2 of 18 I. DESIGN DATA AND LOADS (ASD-14th Edition) COLUMN PROPERTIES: W14X90 - A992 Depth, d = 14 in Web Thickness, tw = 0.44 in Flange Width, bf = 14.5 in Flange Thickness, tf = 0.71 in Distance k, k = 2 in Distance k1, k1 = 1.438 in Area, Ag = 26.5 in² Distance k (Design), kdes = 1.31 in Minimum Yield Stress, Fy = 50 ksi Minimum Tensile Stress, Fu = 65 ksi Modulus of Elasticity, E = 29000 ksi BEAM PROPERTIES: W16X26 - A992 Depth, d = 15.7 in Web Thickness, tw = 0.25 in Flange Width, bf = 5.5 in Flange Thickness, tf = 0.345 in Distance k, k = 1.063 in Distance k1, k1 = 0.75 in Area, Ag = 7.68 in² Distance k(design), kdes = 0.747 in Minimum Yield Stress, Fy = 50 ksi Minimum Tensile Stress, Fu = 65 ksi Modulus of Elasticity, E = 29000 ksi Top of Steel Elevation, Elev = 0 ft + 0 in Span Length, L = 30 ft Erection Clearance, gap = 0.5 in Slope, θsl = 0 deg Skew, Depth of Top Cope, dct = 0 in Depth of Bottom Cope, θsk = 0 deg dcb = 0 in Length of Top Cope, ct = 0 in Length of Bottom Cope, cb = 0 in BOLTS PROPERTIES: 3/4" ø - A325-N For Shear Plate to Beam Web Connection: Bolt Diameter, db = 0.75 in Bolt Shear Strength, Λrv = 11.928 kips Bolt Tensile Strength, Λrn = 19.88 kips Bolt Type, Bolt_Type = A325-N Connection Type, Conn_type= Bearing Type Description:Detailed Report 17

3 of 18 Number of Bolt Rows, nr = 4 Bolt Vertical Spacing, s = 3 in Number of Bolt Column Lines, nv = 1 Bolt Horizontal Spacing, sv = 0 in Total Number of Bolts (nr nv), nb = 4 Holes at Beam Web, Holes at Shear Plate, Vertical Hole Dimension, hdv = 0.875 in Vertical Hole Dimension, hdv = 0.875 in Horizontal Hole Dimension, hdh = 0.875 in Horizontal Hole Dimension, hdh = 1.063 in Bolt First Down from Top of Beam, D = 3 in Vertical Edge Distance (D-dcT), Horizontal Edge Distance, Lev = 3 in Leh = 1.75 in Vertical Edge Distance min(lev,lev2), Horizontal Edge Distance, Lev = 1.25 in Leh = 1.25 in WELDS PROPERTIES : Minimum Tensile Stress, Fu = 70 ksi For Shear Plate to Column Web Connection: Preferred Weld Size (w1), w = 0.25 in SAFETY AND RESISTANCE FACTORS: Safety Factor, Ω(ASD) Modification Factor, Resistance Factor, f(lrfd) Λ = 1 W (if ASD) Λ = f (if LRFD) safety factor resistance factor modification factor For Member in Bearing/Bolt Bearing(brg), Wbrg = 2.00 fbrg = 0.75 Λbrg = 0.50 For Block Shear(bs), Wbs = 2.00 fbs = 0.75 Λbs = 0.50 For Flexural Local Buckling/Flexural Strength(b), For Flexural Rupture(fr), For Member Shear for C, WT, L(v), W b = 1.67 fb = 0.90 Λb = 0.60 Wfr = 2.00 ffr = 0.75 Λfr = 0.50 Wv = 1.67 fv = 0.90 Λv = 0.60 Description:Detailed Report 17

4 of 18 For Shear Rupture(vr), For Shear Yielding(vy), Wvr = 2.00 fvr = 0.75 Λvr = 0.50 Wvy = 1.50 fvy = 1.00 Λvy = 0.67 APPLIED LOADS: Given End Reaction Beam: Shear Load, Adjacent Shear Load (if any), V2 = 0 kips Description:Detailed Report 17

5 of 18 II. CALCULATIONS A. BEAM WEB CHECK 1. Bolt Capacity (AISC 14th Ed. Specifications, Chapter J, Section J3.10, pages 16.1-127 to 16.1- Bolt Capacity due to Shear Load Bearing Area, Abrg = db tw Abrg = 0.187 in² Bolt Centerline Distance from Face of Support, ab = 0.5 (bf - tw) + gap + Leh + 0.5(nv - 1) sv cos(θsk) ab = 9.28 in Eccentricity Distance of End Reaction from Bolt Line, ebv = ab ebv = 9.28 in Load Inclination from Vertical, θ = 0 deg Eccentric Load Coefficient, (AISC 14th Ed. Manual Part 7, Instantaneous Center of Rotation Method, pages 7- C = 1.172 Allowable Bearing Strength Using Edge Distance, (J3-6a, J3-6c) hdh < hdls 1.2 (Lev - 0.5 hdv) tw Fbe = Λbrg Fu 1.2 (Leh - 0.5 hdh) tw 2.4 Abrg ebv > 0in Fbe = min (Fbe) Fbe = 12.797 kips Allowable Bearing Strength Using Bolt Spacing (J3-6a, J3-6c) hdh < hdls Fbs = Λbrg Fu min[1.2 (s - hdv) tw, 2.4 Abrg] Fbs = 14.625 kips Number of Area in Consideration, n1 = 1 Bolt Bearing Capacity, ebv > 0in Rbrg = C min(n1 Fbe, n1 Fbs, n Λrv) Description:Detailed Report 17

6 of 18 Rbrg = 13.977 Bolt Capacity > Applied Force, UCV = 0.715, OK 2. Shear Capacity (AISC 14th Ed. Specifications, Chapter G, Section G2.1, pages 16.1-67 to 16.1-69) Clear Distance Between Flanges of Beam Less the Fillet or Corner Radii, h = d - 2 kdes Limiting Depth-thickness Ratio, h = 14.206 in htw = h tw htw = 56.824 Clear Distance Between Transverse Stiffeners, htw < 260 a = 0 in Web Plate Buckling Coefficient, (G2-6) htw < 260 kv = 5 Web Shear Coefficient, (G2-3, G2-4, G2-5) 0.5 kv E htw 1.1 Fy Cv = 1 Shear Capacity, (G2-1) Rv = Λvbm 0.6 Fy d tw Cv Rv = 70.509 kips a = 0 in kv = 5 Cv = 1 Shear Capacity of Section > Applied Force, UCV = 0.142, OK B. BEAM WEB TO SHEAR PLATE CHECK 1. Bolt Shear Capacity (AISC 14th Ed. Specifications, Chapter J, Section J3.6, pages 16.1-125) Shear Capacity Per Bolt, Λrv = 11.928 kips Bolt Shear Capacity, Rb = n C Λrv Rb = 13.977 kips Bolt Shear Capacity > Applied Force, UCV = 0.715, OK 2. Check for Spacing Description:Detailed Report 17

7 of 18 (AISC 14th Ed. Specifications Chapter J, Section J3.3 and J3.5, pages 16.1-122 to 16.1-124) Shear Plate Thickness, t1 = 0.375 in Beam Web Thickness, t2 = 0.25 in Vertical Spacing of Bolts, s = 3 in smin = 2 2 3 db smax = min(12in, 24 min (t1, t2)) smin = 2 in smax = 6 in Spacing > Min. Spacing & Spacing < Max. Spacing, OK 3. Check for Edge Distance (AISC 14th Ed. Specifications, Chapter J, Section J3.4 and J3.5, pages 16.1-122 to 16.1-124) Shear Plate Thickness, t1 = 0.375 in Shear Plate Edge Distances, Lev1 = 1.25 in Leh1 = 1.25 in Beam Web Thickness, t2 = 0.25 in Beam Web Edge Distances, Lev2 = NA Leh2 = 1.75 in Vertical Edge Distance, Levcon = Lev1 Lev2 Levmin = Levmin1 Levmin2 min(levcon) = Lev1 Levmax = min(6in,12 t1) Levmax = 4.5 in Levcon = Levmin = 1.25 in NA 1 in NA Edge Distance Min. Edge Distance & Edge Distance Max. Edge Distance, OK Horizontal Edge Distance, Description:Detailed Report 17

8 of 18 Lehcon = Lehmin = Leh1 Leh2 Lehmin1 Lehmin2 min(lehcon) = Leh1 Lehmax = min(6in,12 t1) Lehmax = 4.5 in Lehcon = Lehmin = 1.25 in 1.75 in 1.125 in 1 in Edge Distance Min. Edge Distance & Edge Distance Max. Edge Distance, OK C. SHEAR PLATE CHECK 1. Check for Maximum Thickness (AISC 14th Ed. Manual, Part 10, page 10-104) Exceptions for nv = 1 and nv = 2, Shear Plate, db t 2 + 1 16 Beam Web, tw db 2 + 1 16 Leh 2 db Leh 2 db Check maximum thickness of plate Coefficient for Eccentrically Loaded Bolts, (AISC 14th Ed. Manual Part 7, page 7-19) C' = 11.256 in Area of Bolts, Ab = π db 2 4 Ab = 0.442 in² Length of Plate, L = (nr-1) s+2 Lev Maximum Thickness, tmax = 6 tmax = 0.376 in Fnv 0.9 Ab C' 2 Fy L L = 11.5 in t = 0.375 in Plate thickness < Maximum Thickness Permitted, OK Governing Shear Plate Thickness, Case = Maximum thickness need be checked t tmax tg = t tg = 0.375 in Description:Detailed Report 17

9 of 18 2. Check for Stiffener Plate Requirement (AISC 14th Ed. Manual Part 10, pages 10-105 to 10-106) ("On the Need for Stiffeners for the Effect of Lap Eccentricity on Extended Single-Plate Connections",William A. Thornton and Patrick J. Fortney) Distance of First Bolt Line from the Face of Support, ab1 = 0.5(bf - tw) + gap cos(ɵsk) + Leh Lateral Displacement Capacity, (10-6) Rreq = Λb1500 π Rreq = 19.871 in 3 L tg ab1 2 ksi ab1 = 9.28 in Lateral Displacement Capacity > Applied Force, UCV = 0.503, OK Check for Requirement of Stiffener Plates, η = Rreq V Stiffener Plate is not required. OK 3. Bolt Capacity η = 1.987 (AISC 14th Ed. Specifications, Chapter J, Section J3.10, pages 16.1-127 to 16.1- Bolt Capacity due to Shear Load Bearing Area, Abrg = db tg Abrg = 0.281 in² Bolt Centerline Distance from Face of Support, ab = 0.5 (bf - tw) + gap + Leh + 0.5(nv - 1) sv cos(θsk) ab = 9.28 in Eccentricity Distance of End Reaction from Bolt Line, ebv = ab ebv = 9.28 in Load Inclination from Vertical, θ = 0 deg Eccentric Load Coefficient, (AISC 14th Ed. Manual Part 7, Instantaneous Center of Rotation Method, pages 7- C = 1.172 Description:Detailed Report 17

10 of 18 Allowable Bearing Strength Using Edge Distance, (J3-6a, J3-6c) hdh < hdls 1.2 (Lev - 0.5 hdv) tg Fbe = Λbrg Fu 1.2 (Leh - 0.5 hdh) tg 2.4 Abrg ebv > 0in Fbe = min (Fbe) Fbe = 9.38 kips Allowable Bearing Strength Using Bolt Spacing (J3-6a, J3-6c) hdh < hdls Fbs = Λbrg Fu min[1.2 (s - hdv) tg, 2.4 Abrg] Fbs = 19.575 kips Number of Area in Consideration, n1 = n Bolt Bearing Capacity, ebv > 0in Rbrg = C min(n1 Fbe, n1 Fbs, n Λrv) Rbrg = 10.99 Bolt Capacity > Applied Force, UCV = 0.91, OK 4. Shear Yielding Capacity (AISC 14th Ed. Specifications, Chapter J, Section J4.2, page 16.1-129) a. Shear Yielding Capacity due to Shear Load Length, L = (nr - 1) s + 2 Lev L = 11.5 in Erection Stability, (AISC 14th Ed. Manual Part 10, page 10-106) Length of Connector > One-half of T-Dimension, OK Number of Areas in Consideration, n1 = n Shear Yielding Capacity, (J4-3) Rvy = Λvy n1 0.6 Fy L tg Rvy = 62.1 kips Shear Yielding Capacity > Applied Force, UCV = 0.161, OK 5. Rupture Capacity Description:Detailed Report 17

11 of 18 (AISC 14th Ed. Specifications Chapter J, Section J4.2, page 16.1-129) a. Shear Rupture Capacity due to Shear Load Net Shear Area, Anv = (L-nr hdv) tg Anv = 3 in² Number of Areas in Consideration, n1 = n Shear Rupture Capacity, (J4-4) Rvr = Λvr n1 0.6 Fu Anv Rvr = 52.2 kips Shear Rupture Capacity > Applied Force, UCV = 0.192, OK 6. Block Shear Capacity (AISC 14th Ed. Specifications, Chapter J, Section J4.3, page 16.1-129) a. Block Shear Capacity due to Shear Load Reduction Factor, nv = 1 Ubs = 1.0 Gross Shear Area, Agv = [(nr - 1 s+lev] tg (tension stress is uniform) Agv = 3.844 in² Net Tension Area, Ant = [Leh + (nv - 1) sv - (nv - 0.5) hdh] tg Ant = 0.27 in² Net Shear Area, Anv = Agv - [(nr - 0.5) hdv] tg Anv = 2.695 in² Number of Areas in Consideration, n1 = n Block Shear Capacity,(J4-5) Rbs = Λbs n1 min(0.6 Fu Anv + Ubs Fu Ant,0.6 Fy Agv + Ubs Fu Ant) Rbs = 49.329 kips Block Shear Capacity > Applied Force, UCV = 0.203, OK 7. Local Buckling Capacity (AISC 14th Ed. Manual, Part 9, page 9-9) Distance of Bolt Line to Support, Stiffeners = Required ab = gap + Leh ab = 9.5 in Description:Detailed Report 17

12 of 18 Coefficient, λ = 10 tg 475 + 280 L Fy 0.5 L ab 2 0.5 1 ksi 0.5 λ = 0.618 λ > 1.41 1.30 Q = Q = 1 2 λ Allowable Flexural Local Buckling Stress or Yielding Stress, Fcr = Q Fy Fcr = 36 ksi Gross Plastic Section Modulus, tg L 2 Zx = 4 Zx = 12.398 in³ Eccentricity, e = ab e = 9.5 in Local Buckling Capacity, Rbc = Λb Fcr Zx e Rbc = 28.134 kips Local Buckling Capacity will not control, OK 8. Flexural Rupture Capacity (AISC 14th Ed. Manual Part 15, page 15-4) (AISC 14th Ed. Steel Construction Manual Design Examples, page IIA-104) Net Plastic Section Modulus, mod(nr,2) 0 Znet = Znet = 8.461 in³ tg L 2 2 tg hdv nr s 4 4 Flexural Rupture Capacity, Rfr = Λfr Fu Znet e Rfr = 25.828 kips Flexural Rupture Capacity > Applied Force, UCV = 0.387, OK 9. Flexural Yielding Capacity with Von-Mises Shear Reduction (AISC 14th Ed. Manual Part 10, page 10-103) Description:Detailed Report 17

13 of 18 (Muir, Larry and Hewitt, Christopher,"Design of Unstiffened Extended Single-Plate Shear Connections",Engineering Journal, 2nd Quarter 2009, page 69 Flexural Yielding Capacity, Rfc = Λb Fy L tg 2.25 + 16 e L 2 0.5 Rfc = 25.618 kips Flexural Yielding Capacity > Applied Force, UCV = 0.39, OK 10. Interaction of Shear Yielding, Shear Buckling, and Flexural Yielding Capacities (AISC 14th Ed. Manual Part 10, pages 10-104 to 10-105) From AISC Manual Equation 10-5, Vr Vc 2 + Mr Mc 2 1.0 Vr = V Vr = 10 kips Mr = Vr e Mr = 95 kips in Shear Yielding Capacity, Vc = Λvy 0.6 Fy L tg Vc = 62.1 kips Flexural Yielding Capacity, Mc = Λb Fy Zx Mc = 267.272 kips in Interaction, (10-5) UCV = Vr Vc 2 + Mr Mc 2 UCV = 0.152 Interaction < 1.0, UCV = 0.152, OK D. SHEAR PLATE TO COLUMN WEB CHECK 1. Welds Check (AISC 14th Ed. Specifications Chapter J, page 16.1-110 to 16.1-117) Number of Weld Sides, nws = 2 Minimum Weld Size, wmin = 0.25 in w = 0.25 in Preferred Weld Size = Minimum Weld Size, OK Description:Detailed Report 17

14 of 18 III. DETAILS A. SKETCH SHEAR CONNECTION: W BEAM WITH SHEAR PLATE ONE-WAY SHEAR CONNECTION TO W COLUMN WEB Description:Detailed Report 17

15 of 18 B. CONNECTION SCHEDULE Column Mark Size Grade C1000 W14X90 A992 Beam Web Mark Size Grade gap θsl θsk D Leh B1000 W16X26 A992 1/2" 0 0 3" 1 3/4" Cope Dimension dct ct dcb cb Cut Flush Case 0" 0" 0" 0" NR Bolts at Beam Web db Bolt Type Remarks nr s nv sv 3/4" A325-N Short-Slot on Shear Plate ONLY 4 3" 1 0" Description:Detailed Report 17

16 of 18 Shear Plate t Grade Lev Leh 3/8" A36 1 1/4" 1 1/4" Remarks as per AISC Equation 10-5 Interaction < 1.0, UCV = 0.152, OK Governing Limit State of SC Connection V Connection Capacity UCV Governing Check 10 kips 10.990 kips 0.910 Bolt Capacity at Shear Plate Remarks on Connection / Connecting Elements For Bolts For Connector Thickness For Connector Length For Bolt Spacing For Edge Distance OK OK OK OK OK Description:Detailed Report 17

17 of 18 Remarks on Connection / Connecting Elements For Weld on Shear Plate to Column Web OK Remarks on Connection / Connecting Elements For Weld on Shear Plate to Column Web For Weld on Shear Plate to Stiffener For Weld on Stiffener Plate to Column OK NA NA Remarks on Beam Web / Column Web For Beam Web For Column Web OK OK Description:Detailed Report 17

18 of 18 IV. REFERENCES Steel Construction Manual,(14th Ed.), ASD, American Institute of Steel Construction, Inc.,2011 Description:Detailed Report 17