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PROJECT : PAGE : CLIENT : DESIGN BY : JOB NO. : DATE : REVIEW BY : Steel Beam Design with Gravity Loading Based on AISC Manual 14th Edition (AISC 360-10) INPUT DATA & DESIGN SUMMARY = > WT8X28.5 WT J 49 7.77 1.10 7.12 SLOPED DEAD LOADS 0.2 kips / ft kips / ft PROJECTED LIVE LOADS 0.16 kips / ft kips / ft CONCENTRATED LOADS kips kips BEAM SPAN LENGTH 20 ft CANTILEVER LENGTH BEAM SLOPE 0 0.00 DEFLECTION LIMIT OF LIVE LOAD 240 BEAM YIELD STRESS 50 ksi THE BEAM DESIGN IS ADEQUATE. ANALYSIS DETERMINE REACTIONS, MOMENTS & SHEARS = 3.60 kips = 3.60 kips 10.00 ft 10.00 ft 0.00 ft 0.0 ft-kips 18.0 ft-kips 3.60 kips, at R1 right. CHECK MMin BENDING CAPACITY ABOUT MAJOR AXIS (AISC 360-10 Chapter F) 0.00 ft, unbraced length Required Conditions Chapter F Sections for WF Tube WT F2 F3 F4 F5 F7 F9 Double Symmetric x x x Compact Web x x x > Noncompact Web x Slender Web where Compact Flanges x 1.67 Noncompact Flanges x Slender Flanges Applicable Section ok CHECK MMax BENDING CAPACITY ABOUT MAJOR AXIS (AISC 360-10 Chapter F) 19.4 ft-kips, top flange fully supported > [Satisfactory] BEAM SECTION (WF, Tube or WT) Ix Sx bf wDL,1 = wDL,2 = wLL,1 = wLL,2 = PDL = PLL = L1 = L2 = ft, (0 for no cantilever) : 12 ( q 0 ) DLL = L / Fy = X1 = X2 = X3 = Vmax = Mallowable MMin Wb = Mallowable = Mn / Wb = MMax D ,1 ,2 ,1 ,2 2 1 2 2 1 1 2 1 1 0.5 0.5 cos cos DL DL LL LL w w L L L P w w R L L L L L q q ,1 ,2 ,1 ,2 1 1 2 2 cos cos DL DL LL LL w w P w w R L L R q q ,2 ,2 2 2 2 0.5 cos DL LL Min w P w M L L q ,1 ,1 2 1 2 cos 8 DL LL Max X X w w M q 2 3 , l Max L X

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GRAVITY BEAM DESIGN

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AISC 360PROJECT :PAGE :CLIENT :DESIGN BY :JOB NO. :DATE :REVIEW BY :Steel Beam Design with Gravity Loading Based on AISC Manual 14th Edition (AISC 360-10)INPUT DATA & DESIGN SUMMARYBEAM SECTION (WF, Tube or WT)= >WT8X28.5WTIxSxJbftftw497.771.107.120.720.43SLOPED DEAD LOADSwDL,1 =0.2kips / ftwDL,2 =kips / ftPROJECTED LIVE LOADSwLL,1 =0.16kips / ftwLL,2 =kips / ftCONCENTRATED LOADSPDL =kipsPLL =kipsBEAM SPAN LENGTHL1 =20ftCANTILEVER LENGTHL2 =ft, (0 for no cantilever)BEAM SLOPE0: 12 ( q =0.000 )DEFLECTION LIMIT OF LIVE LOADDLL = L /240BEAM YIELD STRESSFy =50ksiTHE BEAM DESIGN IS ADEQUATE.ANALYSISDETERMINE REACTIONS, MOMENTS & SHEARS=3.60kips=3.60kipsX1 =10.00ftX2 =10.00ftX3 =0.00ft0.0ft-kips18.0ft-kipsVmax =3.60kips, at R1 right.CHECK MMin BENDING CAPACITY ABOUT MAJOR AXIS (AISC 360-10 Chapter F)0.00ft, unbraced lengthRequired ConditionsChapter F Sections for WFTubeWTF2F3F4F5F7F9Mallowable = Mn / Wb =Double Symmetricxxx19.4ft-kipsCompact Webxxx>MMin[Satisfactory]Noncompact WebxSlender WebwhereCompact FlangesxWb =1.67, (AISC 360-10 F1)Noncompact FlangesxSlender FlangesApplicable SectionokCHECK MMax BENDING CAPACITY ABOUT MAJOR AXIS (AISC 360-10 Chapter F)Mallowable = Mn / Wb =19.4ft-kips, top flange fully supported>MMax[Satisfactory](cont'd)CHECK SHEAR CAPACITY ABOUT MAJOR AXIS (AISC 360-10 Chapter G2 or G5)Vallowable = Vn / Wv =105.6kips>VMax[Satisfactory]whereWv =1.67, (AISC 360-10 G1)DETERMINE CAMBER AT DEAD LOAD CONDITIONL = L1/ cos q =20.00ft, beam sloped spana = L2/ cos q =0.00ft, beam sloped cantilever lengthP = PDL cos q =0.00kips, perpendicular to beamw1 = wDL,1 cos q =0.20klf, perpendicular to beamw2 = wDL,2 cos q =0.00klf, perpendicular to beam0.00in, downward perpendicular to beam.USE C = 0/4" AT CANTILEVER.0.51in, downward perpendicular at middle of beam.USE C = 2/4" AT MID BEAM.CHECK DEFLECTION AT LIVE LOAD CONDITIONP = PLL cos q =0.00kips, perpendicular to beamw1 = wLL,1 cos2 q =0.16klf, perpendicular to beamw2 = wLL,2 cos2 q =0.00klf, perpendicular to beam0.00in, downward to vertical direction.