Client: Client No 1. Location: Location No 1

Size: px
Start display at page:

Download "Client: Client No 1. Location: Location No 1"

Transcription

1 1 of 3 JOINT CONIGURATION AND DIMENSIONS: bolted ed plate coectio (ustiffeed) Referece clauses: Resistaces for the exteded ed plate coectio. Assumptio: The desig momets i the to beams are equal ad opposite. No axial compressio i the beams (N Ed = 0). Colum UC 54 x 54 x 107 Beam 1 UB 533 x 10 x 9 8 Beam UB 533 x 10 x x 50 x x 50 x 5 Colum: UC 54 x 54 x 107 i S 75 (EN 1005-) RESISTANCE O JOINT Beams: UB 533 x 10 x 9 i S 75 (EN 1005-) Bedig momet: M j,rd = 44 knm Ed plate: 670 x 50 x 5 i S 75 (EN 1005-) Vertical shear: V j,rd = 499 knm Bolts: M4 o preloaded class 8.8 bolts ISO 4016 ISO ISO 7089/7091 Welds: illet elds. Assumed eld sized: s f = 1mm (flage) s = 8 mm (eb) Bolt spacigs S = D = C = = 75 mm 100 mm R1 = e x = 50 mm R11 + R = p 1- = 100 mm (spacig ro 1-) R11 = x = 40 mm R = 60 mm R3 = p -3 = 90 mm (spacig ro -3) R3 = 90 mm Techical Refereces: Joits i Steel Costructio: Momet-Resistig Joits to Eurocode 3. Publicatio P398. The Steel Costructio Istitute..steel-sci.com The British Costructioal Steelork Associatio Limited..steelcostructio.org

2 of 3 DIMENSIONS AND SECTION PROPERTIES Referece clauses: Colum rom data tables for UC 54 x 54 x 107: Depth h c = 66,7 mm Width b c = 58,8 mm Web thickess t c = 1,8 mm lage thickess t fc = 0,5 mm Root radius r c = 1,7 mm Depth betee fillets d c = 00,3 mm Area A c = mm² = 136,4 cm² Beams rom data tables for UB 533 x 10 x 9: Depth h b = 533,1 mm Width b b = 09,3 mm Web thickess t b = 10,1 mm lage thickess t fb = 15,6 mm Root radius r b = 1,7 mm Depth betee fillets d b = 476,5 mm Area A b = mm² = 117,4 cm² Ed plates Depth h p = 670 mm Width b p = 50 mm Thickess t p = 5 mm Bolts M4 o preloaded class 8.8 bolts Diameter of bolt shak d = 4 mm Diameter of hole d 0 = 6 mm Shear area A s = 353 mm² Diameter of asher d = 44 mm (ISO 7089/7091) Bolts spacigs Colum Ed distace (ro 1 from colum edge) e 1 = 1000 mm Spacig (guage) = 100 mm Edge distace e c = 79,4 mm Spacig ro 1- p 1- = 100 mm Spacig ro -3 p -3 = 90 mm Ed plate Ed distace e x = 50 mm Spacig (guage) = 100 mm Edge distace e p = 75 mm Spacig ro 1 above beam flage x = 40 mm Spacig ro 1- p 1- = 100 mm Spacig ro -3 p -3 = 90 mm igure 6.8 igure 6.10 igure 6.13

3 3 of 3 MATERIAL STRENGTHS Referece clauses: Steel stregth BS EN NA..4 or buildig the omial values of the yield stregth (f y ) ad the ultimate stregth (f u ) for structural steel should be those obtaied from the product stadard. Where a rage is give, the loest omial value should be used. S 75 (EN 1005-) EN Table 7 or t 16 mm f y = R eh = 75 N/mm² or 16 mm < t 40 mm f y = R eh = 65 N/mm² or 3 mm t 100 mm f u = R eh = 410 N/mm² Hece: Beam yield stregth f y,b = 75 N/mm² Beam ultimate stregth f u,b = 410 N/mm² Colum yield stregth f y,c = 65 N/mm² Colum ultimate stregth f u,c = 410 N/mm² Ed plate yield stregth f y,p = 65 N/mm² Ed plate ultimate stregth f u,p = 410 N/mm² Bolt stregth Table 3.1 Nomial yield stregth f yb = 640 N/mm² Nomial ultimate stregth f ub = 800 N/mm² PARTIAL ACTORS OR RESISTANCE EN Structural steel Table.1 (see NA) = 1,00 M1 = 1,00 M = 1,10 Parts i coectio Table.1 (see NA) M = 1,5 (bolts, elds, plates i bearig).

4 4 of 3 TENSION ZONE T-STUBS Whe pryig forces may develop, the desig tesio resistace ( T,Rd ) of a T-stub flage should be take as the smallest EN value for the 3 possible failure models i Table 6. () (6) BOLT ROW 1 Colum flage i bedig (o backig plate) Cosider bolt ro 1 to be actig aloe. The key dimesios are sho belo. Determie e mi, m ad l eff for the ustiffed colum flage EN m t 0.8r c c mc () 0,5 x [100 1,8 x 0,8 x 1,7] = 33,4 mm e mi = mi[e p ; e c ] = mi(75; 79,4] = 75 mm EN igure 6.8 or Mode 1, l eff,1 is the lesser of l eff,c ad l eff,cp Table 6.6 l eff,cp = πm = x 3,14 x 33,4 = 10 mm l eff,c = 4m + 1.5e c = 4 x 33,4 + 1,5 x 79,4 = 33 mm l eff,1 = mi[l eff,c ; l eff,cp ] = mi[33; 10] = 10 mm or failure Mode, l eff, = l eff,c STEP 1 Therefore l eff, = l eff,c = 33 mm Mode 1 resistace or Mode 1, ithout backig plates, usig Method : 8 e m e m EN Table 6. m = m c = 33,4 mm = mi[e mi ; 1.5m] = mi[75; (1.5 x 33,4)] = mi[75; 41,8] = 41,8 mm (cot'd)

5 5 of leff,1 tfcfy,c [0,5 x 10 x (0,5)² x 65]/1,00 = 5847 x 10³ Nmm = 5,85 knm Diameter of the asher (for M4 o preloaded class 8.8 bolts): d = 44 mm e = d /4 = (44)/4 = 11 mm Therefore, 8 e m e m [(8 x 41,8 x 11) x 5847 x 10³]/{10³ x [ x 33,4 x 41,8 11 x (33,4 + 41,8)]} = 98,1 kn Mode resistace or Mode T,,Rd Mpl,,Rd m [ x (6487 x 10³) + 41,8 x 406,7 x 10³)/(33,4 + 41,8) = 398,4 kn EN Table 6. 0,5 leff, t fcfy,c Mpl,,Rd [0,5 x 33 x (0,5)² x 65]/1 = 6487 x 10³ Nmm = 6,49 knm is the total value of for all the bolts i the ro, kf A 0.9f A ub s ub s M M or bolts i the ro (0,9 x 800 x 353)/1,5 = 03,3 x 10³ N = 03,3 kn (for a sigle bolt) EN Table 3.4 = x 03,3 x 10³ = 406,7 x 10³ N = 406,7 kn Mode 3 resistace (bolt failure) T,3,Rd = = 406,7 kn EN Table 6. Resistace of colum flage i bedig t,fc,rd = mi[ ; T,,Rd ; T,3,Rd ] = mi[98,1; 398,4; 406,7] = 398,4 kn EN (6) Colum eb i trasverse tesio The desig resistace of a ustiffeed colum eb to trasverse tesio is determied from: EN (1) t,c,rd b t f eff,t,c c y,c Eq. (6.15) here ω is a reductio factor that allos for the iteractio ith shear i the colum eb pael.

6 6 of 3 Trasformatio parameter β = 0,0 [-] Reductio factor: 0 β 0.5 ω = 1,00 Table 5.4 Table 6.3 Here, as mi[ ; T,,Rd ] = [98,1; 398,4] = 398,4 kn ith: l eff,1 = l eff, = 10 mm 33 mm for a bolted coectio the effective idth of the colum eb i tesio is cosidered to be: b eff,t,c = 33 mm. f y,c = f y,c = 65 N/mm² ω = 1,00 [-] Thus, t,c,rd = [(1,00 x 33 x 1,8 x 65)/1,00]/10³ = 790,4 kn Ed plate i bedig STEP 1 Bolt ro 1 is outside the tesio flage of the beam. The key dimesios for the T-stub are sho belo igure 6.10 The values of m x, e x, ad e for the T-stub are: e = e p = e x = 75 mm 50 mm m x = x 0.8s f = 40 0,8 x 1 = 30,4 mm or Mode 1, l eff,1 is the lesser of l eff,c ad l eff,cp Table 6.6 l eff,cp = mi[πm x ; πm x + ; πm x + e] = mi[(π x 30,4); (π x 30, ); (π x 30,4 + x 75)] = mi[191; 196; 46] = 191 mm l eff,c = mi[4m x + 1.5e x ; e + m x e x ; 0.5b p ; m x e x ] = mi[(4 x 30, x 50); (75 + x 30, x 50); (0.5 x 50); (0.5 x x 30, x 50)] = Table 6.6 l eff,c = mi[184; 167; 15; 14] = 15 mm

7 7 of 3 l eff,1 = mi[l eff,c ; l eff,cp ] = mi[15; 191] = 15 mm or Mode, l eff, = l eff,c = 15 mm Mode 1 resistace or Mode 1 failure, usig Method : Table 6. 8 e m e m = e mi = mi[e x ; 1.5m x ] = mi[50; 1.5 x 30,4] = 38,3 mm m = m x = 30,4 mm Sheet 6 e = 11,0 mm Sheet 5 f y = f y,p = t = t p = 65 N/mm² 5 mm 0.5 leff,1 tp fy,p (0.5 x 15 x 5² x 65)/1 = x 10³ = Nmm = 5, knm 8 e m e m (8 x 38,3 x 11,0) x x 10³/{10³ x [ x 30,4 x 38,3 11,0 x (30,4 + 38,3]} = 936 kn Mode resistace T,,Rd Mpl,,Rd m Table leff,tpfy,p Mpl,,Rd (0.5 x 15 x 5² x 65)/1 = x 10³ = Nmm = 5, knm l eff, = 15 mm = 407 x 10³ N = 407 kn Sheet 5 Therefore, T,,Rd = ( x x 10³ + 38,3 x 407 x 10³)/{10³ x (30,4 + 38,3)} = 377 kn Mode 3 resistace (bolt failure) T,3,Rd = = 407 kn Resistace of ed plate i bedig t,ep,rd = mi[ ; T,,Rd ; T,3,Rd ] = mi[936; 377; 407] = 377 kn (6) Beam eb i tesio As bolt ro 1 is i the extesio of the ed plate, the resistace of the beam eb i tesio is ot applicable tothis bolt ro.

8 8 of 3 SUMMARY: RESISTANCE O T-STUB OR BOLT ROW 1 Resistace of bolt ro 1 is the smallest value of: Colum flage i bedig t,fc,rd = 398 kn Colum eb i tesio: t,c,rd = 790 kn Ed plate i bedig: t,ep,rd = 377 kn Therefore, the resistace of bolt ro 1 is: t1,rd = mi[ t,fc,rd ; t,c,rd ; t,ep,rd ] = mi[398; 790; 377] = 377 kn BOLT ROW irstly, cosider ro aloe. Colum flage i bedig The resistace of the colum flage i bedig is as calculated for bolt ro 1 (Mode ): STEP 1 t,fc,rd = 398 kn Sheet 5 Colum eb i trasverse tesio The colum eb resistace to trasverse tesio ill also be as calculated for bolt ro 1. STEP 1B Therefore: t,c,rd = 790 kn Sheet 6 Ed plate i bedig STEP 1 Bolt ro is the first bolt ro belo the beam flage, cosidered as "first bolt-ro belo tesio flage of beam" i Table 6.6. The key dimesios for the T-stub are as sho for the colum flage T-stub for ro 1 ad as sho belo (i elevatio) for ro. Sheet 4 tb 0.8s m mp e = e p = 75 mm (100 10,1 x 0.8 x 8)/ = 38,6 mm m = R t fb 0.8s f = 60 15,6 (0.8 x 1) = 34,8 mm α is obtaied from igure 6.11 (reproduced i, Appedix G as igure G.1) Parameters required to determie α: m 1 m e ad m m e

9 9 of 3 λ 1 = 38,6/(38,6 + 75) = 0,34 λ = 34,8/(38,6 + 75) = 0,31 Thus, by iterpolatio (see, igure 6.11), = 7,3 [-] igure 6.11 Table 6.6 l eff,cp = πm = l eff,c = m = l eff, = l eff,c = x π x 38,6 = 4 mm 7,3 x 38,6 = 83 mm 83 mm l eff,1 = mi[l eff,cp ; l eff,c ] = mi[4; 83] = 4 mm Mode 1 resistace Table 6. or Mode 1, usig Method : 8 e m e m SHEET 4 = mi[e mi ; 1.5m] = mi[75; (1.5 x 38,6)] = 48, mm SHEETS 5//3 e = 11,0 mm t p = 5 mm f y,p = 65 N/mm² 0.5 leff,1 tp fy,p 8 e m e m (0,5 x 4 x 5² x 65)/1,00 = 10,0 x 10³ x 10³ Nmm [(8 x 48, x 11,0) x 10³]/[( x 38,6 x 48,) 11,0 x (38,6 + 48,)] = 1.30 kn Table 6. SHEET 5 Mode resistace T,Rd Mpl,,Rd m = 03 kn 0.5 leff, tp fy,p Mpl,,Rd (0,5 x 83 x 5² x 65)/1,00 = 11,7 x 10³ x 10³ Nmm = x 03 = 407 kn T,,Rd Mpl,,Rd m ( x 11,7 x 10³ + 48, x 407)/(38,6 + 48,) = 496 kn Mode 3 resistace (bolt failure) T,3,Rd = = 407 kn

10 10 of 3 Resistace of ed plate i bedig t,ep,rd = mi[ ; T,,Rd ; T,3,Rd ] = [1.30; 496; 407] = 407 kn (6) Beam eb i tesio STEP 1B The desig tesio resistace of the eb is determied from: (1) beff,t,btbfy,b t,b,rd Eq. (6.) b eff,t,b = mi[l eff,1 ; l eff, ] = 4 mm (coservatively, cosider the smallest l eff from earlier calculatios) () t b = 10,1 mm SHEET ω = 1,00 [-] SHEET 6 Therefore: t,b,rd b t f eff,t,b b y,b [(1,00 x 4 x 10,1 x 75)/1,00]/10³ = 673 kn The above resitaces for ro all cosider the resistace of the ro actig aloe. Hoever, o the colum side, the resistace may be limited by the resistace of the group of ros 1 ad. That group resistace is o cosidered. ROWS 1 AND COMBINED Colum flage i bedig e c = m c = p -3 = 79,4 mm SHEET 33,4 mm SHEET mm SHEET e 1 = 1000 mm SHEET 3 or bolt ro 1 combied ith ro i the colum flage, both ros are cosidered as ''ed bolt ro'' i Table 6.4. or bolt ro 1: l eff,c = mi[(m e + 0.5p); (e p)] = mi[( x 33, x 79, x 100); ( x 100)] = 167 mm l eff,cp = mi[(πm + p); (e 1 + p)] = mi[(π x 33, ); ( x )] = 05 mm The effective leghts for bolt ro, as a bottom ro of a group, are the same as for ro 1: l eff,c = l eff,cp = x 167 = 333 mm x 05 = 410 mm

11 11 of 3 The effective legths for the group of bolts is: Mode 1 Table 6.4 l eff,1 = mi[ l eff,c ; l eff,cp ] = mi[333; 410] = 333 mm Mode : Table 6.4 l eff, = l eff,c = 333 mm Mode 1 resistace 8 e m e m Table 6. m = 33,4 mm SHEET 4 = 41,8 mm SHEET 4 e = 11,0 mm SHEET leff,1 tfc fy,c 8 e m e m (0.5 x 333 x 0,5² x 65)/1,00 = 9,7 x 10³ x 10³ Nmm [(8 x 41,8 x 11,0) x 9,7 x 10³ x 10³)/{10³ x [ x 33,4 x 41,8 11,0 x (33,4 + 41,8)]} = 1.47 kn Mode resistace T,,Rd Mpl,,Rd m Table 6. = 03 kn SHEET 5 = 4 x 03 = 813 kn 0.5 leff,tfcfy,c Mpl,,Rd T,,Rd Mpl,,Rd m (0.5 x 333 x 0,5² x 65)/1,00 = 9,7 x 10³ x 10³ Nmm ( x 9,7 x 10³ + 41,8 x 813)/(33,4 + 41,8) = 698 kn Mode 3 resistace (bolt failure) T,3,Rd = = 4 x 03 = 813 kn Table 6. Resistace of colum flage i bedig t,fc,rd = mi[ ; T,,Rd ; T,3,Rd ] = mi[1.47; 698; 813] = 698 kn (6) Colum eb i trasverse tesio STEP 1B The desig resistace of a ustiffed colum eb i trasverse tesio is: beff,t,ctc fy,c t,c,rd here b eff,t,c is the equivalete T-stub represetig the colum flage from Sec (). Coservatively use the (3) lesser of the values of effective legths for Mode 1 ad Mode : SHEET 10 (cot'd)

12 1 of 3 b eff,t,c = l eff, = 333 mm ith t c = 1,8 mm; f y,c = 65 N/mm² The equatio to use to calculate ω depeds o β. As before, β = 0,0 ad therefore ω = 1,00: SHEET 6 t,c,rd b t f eff,t,c c y,c (1,00 x 333 x 1,8 x 65/1,00)/10³ = kn Ed plate i bedig There is o group mode for the ed plate. SUMMARY: RESISTANCE O BOLT ROWS 1 AND COMBINED Resistace of bolt ro 1 ad combied, o the colum side, is the smaller value of: Colum flage i bedig: Colum eb i tesio: Therefore, the resistace of bolts 1 ad combied is: t,fc,rd = t,c,rd = t,1-,rd = 698 kn kn 698 kn The resistace of bolt ro o the colum side is therefore limited to: t,c,rd = t,1-,rd t1,rd = ( ) = 31 kn SHEET 8 SUMMARY: RESISTANCE O BOLT ROW Resistace of bolt ro is the smallest value of: Colum flage i bedig: t,fc,rd = 398 kn SHEET 8 Colum eb i tesio: t,c,rd = 790 kn SHEETS 6/8 Beam eb i tesio: t,b,rd = 673 kn SHEET 10 Ed plate i bedig: t,ep,rd = 407 kn SHEET 10 Colum side, as part of a group (see above): t,c,rd = 31 kn Therefore, the resistace of bolt ro is: t,,rd = 31 kn BOLT ROW 3 irst, cosider ro 3 aloe. Colum flage i bedig STEP 1 The colum flage i bedig resistace is the same as bolt ros 1 ad therefore: Colum eb i trasverse tesio t,fc,rd = 398 kn STEP 1B The colum eb resistace to trasverse tesio is as calculated for bolt ros 1 ad. Therefore: t,c,rd = 790 kn SHEET 6 Ed plate i bedig STEP 1 Bolt ro 3 is the secod bolt ro belo the beam's tesio flage, cosidered as a ''other ed bolt-ro'' i Table 6.6. The key dimesios are as oted above for bolt ro. Determie m, e ad l eff : e = e p = 75 mm m = 38,6 mm SHEETS /8 l eff,cp = πm = x π x 38,6 = 4 mm

13 13 of 3 l eff,c = 4m + 1.5e = l eff,1 = mi[l eff,cp ; l eff,c ] = 4 x 38, x 75 = 48 mm mi[4; 48] = 4 mm l eff, = l eff,c = 48 mm Mode 1 resistace or Mode 1, usig Method : 8 e m e m Table 6. = 48, mm ad m = 38,6 (as for ro ) SHEETS 8/9 = 11,0 mm SHEET leff,1t pfy,p 8 e m e m (0.5 x 4 x 5² x 65)/1,00 = 10,0 x 10³ x 10³ Nmm = 10,0 knm [(8 x 48, x 11,0) x 10,0 x 10³]/{[ x 38,6 x 48, 11,0 x (38,6 + 48,)]} = 1.30 kn Mode resistace M T,,Rd pl,,rd Mpl,,Rd m 0.5 l t f eff, p y,p t p = 5 mm = 03 kn = x 03 = 407 kn 0.5 leff,tpfy,p Mpl,,Rd T,,Rd Mpl,,Rd m (0.5 x 48 x 5² x 65)/1,00 = 10,3 x 10³ x 10³ Nmm = 10,3 knm ( x 10,3 x 10³ + 48, x 407)/(38,6 + 48,) = 463 kn Mode 3 resistace (bolt failure) t,3,rd = Σ = 407 kn Resistace of ed plate i bedig (6) t,ep,rd = mi[ ; T,,Rd ; T,3,Rd ] = mi[1.30; 463; 407] = 407 kn Beam eb i tesio T,b,Rd b t f eff,t,b b y,b STEP 1B (1) Eq. (6.) b eff,t,b = l eff

14 14 of 3 Coservatively, cosider miimum l eff. Therefore: b eff,t,b = l eff = mi[l eff,1 ; l eff, ] = mi[4; 48] = 4 mm. SHEET 13 t b = 10,1 mm. Therefore, b t f eff,t,b b y,b T,b,Rd [(4 x 10,1 x 75)/10³]/1,0 = 673 kn The above resistaces for ro 3 all cosider the resistace of the ro actig aloe. Hoever, o the colum side the resistace may be limited by the resistace of the group of ros 1,, ad 3 or by the group of ros ad 3. O the beam side, the resistace may be limited by groups of ros ad 3. Those group resistaces are o cosidered. ROWS 1, AND 3 COMBINED Colum flage i bedig STEP 1 Circular ad o-circular yield lie patters are: ROW 1 ROW ROW 3 The effective legth for bolt ro 1, as part of a group, is the same as that determied as part of the group of ros 1 a. Thus: Ro 1: l eff,c = 167 mm SHEET 10 l eff,cp = 05 mm Ro 3 is also a "ed bolt ro", similar to ro 1, but the value of bolt spacig p is differet. p = p -3 = 90 mm Thus: l eff,c = m e + 0.5p = ( x 33,4) + (0.65 x 79,4) + (0.5 x 90) = 16 mm l eff,cp = πm + p = (π x 33,4) + 90 = 195 mm or this group, bolt ro is a "other ier bolt ro". Therefore: l eff,cp = p l eff,c = p Here, the vertical spacig betee bolts above ad belo ro is differet, therefore use: p 1 p p 3 (100/) + (90/) = 95 mm l eff,cp = p = x 95 = 190 mm l eff,c = p = 95 mm Therefore, the total effective legths for this group of ros are: l eff,c = = 43 mm

15 15 of 3 l eff,cp = = 590 mm Therefore, assume: l eff, = l eff,1 = 43 mm ( l eff, = l eff,c = l eff,1 l eff,cp ) Table 6.4 Mode 1 resistace or Mode 1, usig Method : 8 e m e m m = 33,4 mm SHEET 4 = 41,8 mm SHEET 4 e = 11,0 mm SHEET leff,1 tf fy,c 8 e m e m (0,5 x 43 x 0,5² x 65)/1,0 = 11,8 x 10³ x 10³ Nmm = 11,8 knm [(8 x 41,8 x 11,0) x 11,8 x 10³]/[( x 33,4 x 41,8) 11,0 x (33,4 + 41,8)] = kn Mode resistace T,,Rd Mpl,,Rd m = 03 kn SHEET 5 = 6 x 03 = 1.0 kn 0,5 leff,,rd t f fy,c Mpl,,Rd Here, as l eff, = l eff,1, M pl,,rd = M pl,1,rd : T,,Rd Mpl,,Rd m ( x 11,8 x 10³ + 41,8 x 1.0)/(33,4 + 41,8) = 991 kn Mode 3 resistace (bolt failure) T,3,Rd = = 6 x 03 = 1.0 kn Table 6. Resistace of colum flage i bedig t,fc,rd = mi[ ; T,,Rd ; T,3,Rd ] = Colum eb i trasverse tesio mi[1.870; 991; 1.0] = 991 kn (6) STEP 1B The desig resistace of a ustiffeed colum eb i traverse tesio is: (1) beff,t,c tc fy,c t,c,rd Eq. (6.15) beff,t,c is the effective legth of the equivalet T-stub represetig the colum flage from As the failure is Mode (see sheet 15) take: (3) b eff,t,c = l eff, = 43 mm SHEET 15

16 16 of 3 The equatio to use to calculate depeds o. As before, ith = 0,00 [-] therefore: = 1,00 [-] SHEET 6 t,c,rd b t f eff,t,c c y,c [(1,0 x 43 x 1,8 x 65)/10³]/1,0 = kn Summary: resistace of bolts ros 1, ad 3 combied Resistace of bolt ros 1, ad 3 combied, o the colum side, is the smaller value of: colum flage i bedig: colum eb i tesio: t,fc,rd = t,c,rd = 991 kn kn Therefore, the resistace of bolt ro 1, ad 3 combied is: t,1-3,rd = 991 kn The resistace of bolt ro 3 o the colum side is therefore limited to: t3,c,rd = ( t,1-3,rd t,1-,rd ) = ( ) = 93 kn ROWS AND 3 COMBINED Colum side-flage i bedig olloig the same process as for ro 1, ad 3 combied, l eff,cp = πm + p = x π x 33,4 + x 90 = 390 mm l eff,c = 4m + 1.5e + p = 4 x 33,4 + 1,5 x 79, = 33 mm Therefore, l eff, = l eff,1 = 33 mm Mode 1 resistace 0,5 leff,1 t f fy,c 8 e m e m (0,5 x 33 x 0,5² x 65)/1,0 = 9,0 x 10³ x 10³ Nmm = 9,0 knm Table 6. [(8 x 41,8 x 11,0) x 9,0 x 10³]/[( x 33,4 x 41,8) 11,0 x (33,4 + 41,8)] = 1.48 kn Mode resistace Here, as l eff, = l eff,1, M pl,,rd = M pl,1,rd : Mpl,,Rd ( x 9,0 x 10³ + 41,8 x 4 x 03)/(33,4 + 41,8) = 691 kn Table 6. T,,Rd m Mode 3 resistace (bolt failure) T,3,Rd = = (6 x 03) = 1.0 kn Table 6. Colum eb i trasverse tesio (1) b eff,t,c = 33 mm Eq. (6.15) The equatio to use to calculate depeds o. As before, ith = 0,00 [-] therefore: = 1,00 [-] SHEET 6 t,c,rd b t f eff,t,c c y,c [(1,0 x 33 x 1,8 x 65)/10³]/1,0 = kn

17 17 of 3 Beam side-ed plate i bedig O the beam side, ro 1 is ot part of a group but the resistace of ro 3 may be limited by the resistace of ros ad 3 as a group. Determie the effective legths for ros ad 3 combied: Ro is a "first bolt-ro belo tesio flage of beam" i Table 6.6. l eff,cp = πm + p Here: p = p -3 = 90 mm = 48, m = 38,6 (as for ro aloe) l eff,cp = πm + p = (π x 38,6) + 90 = 11 mm STEP 1 A Obtai a from igure (or Aex G ) usig (see sheet 9): λ 1 = 0,3395 λ = 0,30647 rom igure 6.11 = 7,3 [-] l eff,c = 0.5p + m (m e) = 0,5 x ,3 x 38,6 [ x 38,6 + (0.65 x 75)] = 04 mm Ro 3 is a "other ed bolt-ro" i Table 6.6 l eff,cp = πm + p = (π x 38,6) + 90 = 11 mm STEP 1 A l eff,c = m e + 0.5p = ( x 38,6) + (0.65 x 75) + (0.5 x 90) = 169 mm Therefore, the total effective legths for this group of ros are: l eff,c = l eff,cp = = 373 mm = 4 mm Hece, l eff, = l eff,1 = 373 mm Mode 1 resistace (ros + 3) or Mode 1 failure, usig Method : Table 6. 8 e m e m = 48, mm SHEET 9 e = 11,0 mm SHEET leff,1 tp fy,p 0.5 x 373 x 5² x 65/1,0 = 15,4 x 10³ x 10³ Nmm = 15,4 knm m = 38,6 mm SHEET 8 8 e m e m [(8 x 48, x 11,0) x 15,4 x 10³]/[ x 38,6 x 48, 11,0 x (38,6 + 48,)] =.034 kn

18 18 of 3 Mode resistace (ros + 3) T,,Rd Mpl,,Rd m = 03 kn = 4 x 03 = 813 kn M pl,,rd 0.5 l t f eff, f y,p Here, as l eff, = l eff,1 : M pl,,rd = M pl,1,rd = 15,4 knm T,,Rd Mpl,,Rd m ( x 15,4 x 10³ + 48, x 813)/(38,6 + 48,) = 808 kn Mode 3 resistace (bolt failure) (ros + 3) T,3,Rd = = 4 x 03 = 813 kn Resistace of ed plate i bedig t,ep,rd = mi[ ; T,,Rd ; T,3,Rd ] = mi[.034; 808; 813] = 808 kn (6) Beam eb i tesio This verificatio is ot applicable as the beam flage (stiffer) is ithi the tesio legth. (*) Summary: resistace of bolt ros ad 3 combied Resistace of bolt ros ad 3 combied, o the beam side, is: Ed plate i bedig: Therefore(*), o the beam side: t,ep,rd = 808 kn t,-3,rd = t,ep,rd = 808 kn The resistace of bolt ro 3 o the beam side is therefore limited to: t3,b,rd = t-3,rd = (808 31) = 487 kn SHEET 1 Resistace of bolts ros ad 3 combied, o the colum side, is: Colum flage i bedig: t,fc,rd = 691 kn SHEET 16 Colum eb i tesio: t,c,rd = kn Therefore, o the colum side: t-3,rd = 691 kn SHEET 16 The resistace of bolt ro 3 o the colum side is therefore limited to: t3,b,rd = t-3,rd = (691 31) = 370 kn Summary: resistace of bolt ro 3 Resistace of bolt ro 3 is the smallest value of: Colum flage i bedig: t,fc,rd = 398 kn SHEET 5/1 Colum eb i tesio: t,c,rd = 790 kn SHEET 6/1 Beam eb i tesio: t,b,rd = 673 kn SHEET 14 Ed plate i bedig: t,ep,rd = 407 kn SHEET 10 (cot'd)

19 19 of 3 (cot'd) Colum side, as part of a group ith & 1: t3,c,rd = 93 kn SHEET 16 Colum side, as part of a group ith : t3,c,rd = 370 kn SHEET 18 Beam side, as part of a group ith : t3,b,rd = 487 kn SHEET 18 Therefore, the resistace of bolt ro 3 is: t3,rd = 93 kn. SUMMARY O TENSION RESISTANCES The above derivatio of effective resistaces of the tesio ros may be summarized i tabular form, as sho belo. Resistaces of ros tr,rd [kn] Colum Colum Ed Beam MIN Effect. flage eb plate eb resist. ROW 1, aloe N/A ROW 1 (mi) ROW, aloe ROW N/A N/A 698 ROW (effect.) ( ) 300 ROW (mi) ROW 3, aloe ROW N/A N/A 991 ROW 3 (effect. a) ( ) 93 ROW N/A 691 ROW 3 (effect. b) (691 31) 370 COMPRESSION ZONE T-STUBS 93 ROW 3 (mi) Colum eb i trasverse compressio STEP The desig resistace of a ustiffed colum eb i trasverse compressio is determied from: c,c,rd k b t f c eff,c,c c y,c (crushig resistace) 6..6,(1) Eq. (6.9) but: c,c,rd kc beff,c,c tc fy,c M1 (bucklig resistace) or a bolted ed plate: b eff,c,c = t fb + a p + 5 (t fc + s) + s p = t fb + s f + 5 (t fc + s) + s p Eq. (6.11) or rolled I ad H colum sectio s = r c. Thus: s = r c = 1,7 mm SHEET s p is the legth obtaied by dispersio at 45 through the ed plate: 0.5s p = 5 mm SHEET t p = 5 mm " Beam flage h p = 670 mm (Ed-plate depth) s f = 1 mm " Ed-plate t fc = 0,5 mm " t fb = 15,6 mm "

20 0 of 3 s p = t p = x 5 = 50 mm Verify that the depth of the ed plate (h p ) is sufficiet to allo the dispersio of the force. Miimum h p required is: h p e x + x + h b + s f + t p = ( , ) = 660,1 mm h p = 670 mm SHEET As 670 mm 660,1, the depth of the ed plate is sufficiet. [Satisfactory] Therefore: b eff,c,c = t fb + a p + 5 (t fc + s) + s p = t fb + s f + 5 (t fc + s) + s p = 15,6 + x x (0,5 + 1,7) + 50 = 55,6 mm. ρ is the reductio factor for plate bucklig If If p p p p p is the plate slederess: Eq. (6.13a) Eq. (6.13b) 0.93 b d f eff,c,c c y,c p Etc 0.93 x {(55,6 x 00,3 x 65)/(10 x 10³ + 1,8²)} = 0,59 [-] Eq. (6.13c) As 0,59 mm 0.7 Eq. (6.13a) gives: 1,00 [-] is determied from Table 6.3 based o (see sheet ). The equatio to use to calculate depeds o. As before, ith = 0,00 [-] therefore: = 1,00 [-] SHEET 6 k c is a reductio factor that takes accout of compressio i the colum eb. Note to Here, it is assumed that k c = 1,00 [-] 6..6.() c,c,rd k b t f c eff,c,c c y,c k b t f c eff,c,c c y,c M1 (1,00 x 1,00 x 55,6 x 1,8 x 65/1,0)/10³ = 867 kn 867 x (1,00/1,00) x 1,00 = 867 kn Therefore: c,c,rd = 867 kn (crushig resistace govers). Beam flage ad eb i compressio The resultat of the desig resistace of a beam flage ad adjacet compressio zoe of the eb is determied usig: (1) Mc,Rd c,fb,rd Eq. (6.1) h t fb M c,rd is the desig resistace of the beam At this stage, assume that the desig shear force i the beam does ot reduce M c,rd. Therefore: M c,rd b fb b fb y,b y,b c,fb,rd bbtfb hb tfb hb tfb bt h t f / f (approximated, coservative)

21 1 of 3 y,b c,fb,rd 1.3 bbtfb f 1,3 x (75/1,0) x 09,3 x 15,6 = x 10³ N = kn Summary: resistace of compressio zoe Colum eb i trasverse compressio: Beam flage ad eb i compressio: c,c,rd = 867 kn c,fb,rd = kn Compressio resistace: c,rd = mi[ c,c,rd ; c,fb,rd ] = mi[867; 1.167] = 867 kn Resistace of colum eb pael i shear STEP 3 The plastic shear resistace of a ustiffeed eb is give by: V p,rd 0,9fy,cA 3 vc (1) Eq. (6.7) The resistace is ot evaluated here, sice there is o desig shear i the eb because the momets for the beams are equal ad opposite. MOMENT RESISTANCE EECTIVE RESISTANCE O BOLTS ROWS STEP 4 The resistaces of each of the three bolt ros i the tesio zoe are: SHEET 19 t1,rd = 377 kn (for ROW 1) = 300 kn (for ROW ) t3,rd = 93 kn (for ROW 3) The UK NA states that the effective resistaces should be reduced he either the resistace of oe of the higher ros exceeds 1.9 UK NA (here: 1.9 = 1,9 x 03 = 386 kn 377 mm) (o reductio is ecessary accordig to UK NA). SHEET 5 or (o reductio is also ecessary): Note d f tp 1.9 f ub y,p or d f tfc 1.9 f ub y,c

22 of 3 I this case, the limitig thickess are respectively: UK NA t p 1,9 mm ith t p = 5 mm (reductio is ecessary). t fc 1,9 mm ith t fc = 0,5 mm (o reductio is ecessary). (No reductio is applied accordig to UK NA: a plastic distributio ca be assumed). Reductio factors: h /h x = 0,83 [-] (for ROW ) h 3 /h x = 0,664 [-] (for ROW 3) = 565,3 mm SHEET 1 h = h x (R11 + R) = 465,3 mm " h 3 = h R3 = 375,3 mm " NOTE - UK NA statemets: o reductio applied. The effective resistaces of each of the three bolt ros i the tesio zoe are: t1,rd = 377 kn (for ROW 1) = 300 kn (for ROW ) t3,rd = 93 kn (for ROW 3) EQUILIBRIUM O ORCES The sum of the tesile forces, together ith ay axial compressio i the beam, caot exceed the resistace of the compressio zoe. Similarly, the desig shear caot exceed the shear resistace of the colum eb pael; thisi is ot relevat i thi case as the momets i the idetical beams are equal ad opposite. or horizotal equilibrium: tr,rd + N Ed = c,rd I this case there is o axial compressio/tesio i the beam (N Ed = 0) Therefore, for equilibrium of forces: tr,rd = c,rd Effective resistaces to achieve equilibrium: t1,rd = 377 kn + = 300 kn t3,rd = 190 kn = c,rd = 867 kn

23 3 of 3 Reductio do Tesio Ro orce NOTE The tesio forces i the bolts ros ad the compressio force at bottom flage level must be i equilibrium ith ay axial force i the beam. The forces caot exceed the compressio resistace of the joit, or, here applicable, the shear resistace of the eb pael. Whe the sum of the effective desig tesio resistaces ti,rd exceeds ( c,rd N Ed ), a allocatio of reduced bot forces must be determied that satisfies equilibrium. To achieve a set of bolt ro forces that is i equilibrium, the effective tesio resistaces should be reduced from the values calculated i step 4, startig ith the bottom ro ad orkig up progressively, util equilibrium is achieved. This allocatio achieves the maximum value of momet resistace that ca be realised. MOMENT RESISTANCE O JOINT The momet resistace of the beam to colum joit (M j,rd ) may be determied usig: M h j,rd r tr,rd r 6..7.(1) Eq. (6.5) Takig the cetre of compressio to be at the mid-thickess of the compressio flage of the beam: h r1 = 565 mm h r = 465 mm h r3 = 375 mm Thus, the momet resistace of the beam to colum joit is: M h h h h j,rd r tr,rd r1 t1,rd r r3 t3,rd r = (565 x x x 190)/10³ = 44 knm. VERTICAL SHEAR RESISTANCE Resistace of bolt group The shear resistace of a o-preloaded M4 class 8.8 bolt i sigle shear is: v,rd = 136 kn. b,rd = 59 kn (ed bolts i 0,5 mm ply, bearig resistace). Hece 135,6 kn govers: Rd = mi[ v,rd ; b,rd ] = mi[136; 59] = 136 kn The shear resistace of the upper ros may be take coservatively as 8% of the shear resistace ithout tesio (this assumes STEP 5 that these bolts are fully utilized i tesio) ad thus the shear resistace of all 4 ros is: V j,rd = ( + 6 x 0.8) x 136 = 3.68 x 136 = 499 kn. WELD DESIGN The simple approach requires that the elds to the tesio flage ad the eb should be full stregth ad the eld to the compressio flage is of omial size oly, assumig that it has bee prepared ith a sa cut ed. BEAM TENSION LANGE WELDS A full stregth eld is provided by symmetrical fillet elds ith a total throat thickess at least equal to the flage thickess. Required throat size: Weld throat provided: t fb / = 15,6/ = 7,8 mm. a f = 1/ = 8,5 mm, hich is adequate. BEAM COMPRESSION LANGE WELDS Provide a omial fillet eld either side of the beam flage. A 8 mm leg legth fillet eld ill be satisfactory. BEAM TENSION LANGE WELDS or coveiece, a full stregth eld is provided to the eb: Required throat size: Weld throat provided: t f / = 10,1/ = 5,1 mm. a p = 8/ = 5,7 mm, hich is adequate.

5.1 WORKED EXAMPLE Header plate connection Geometrical and mechanical data e 1. p 1. e 2 p 2 e 2

5.1 WORKED EXAMPLE Header plate connection Geometrical and mechanical data e 1. p 1. e 2 p 2 e 2 5.1 WORKED EXAMPLE Header late coectio 5.1.1 Geoetrical ad echaical data e 1 M20 1 HEA200 IPE300 1 e 1 e 2 2 e 2 Mai joit data Coiguratio Bea to colu lage Colu HEA 200 S 235 Bea IPE 300 S 235 Tye o coectio

More information

GENERAL GEOMETRY LEFT SIDE BEAM RIGHT SIDE BS :2000/AC:2009. Ratio 0.17

GENERAL GEOMETRY LEFT SIDE BEAM RIGHT SIDE BS :2000/AC:2009. Ratio 0.17 Autodesk Robot Structural Analysis Professional 2015 Design of fixed beam-to-beam connection BS 5950-1:2000/AC:2009 Ratio 0.17 GENERAL Connection no.: 2 Connection name: Beam-Beam Structure node: 40 Structure

More information

Autodesk Robot Structural Analysis Professional 2014 Design of fixed beam-to-column connection EN :2005/AC:2009

Autodesk Robot Structural Analysis Professional 2014 Design of fixed beam-to-column connection EN :2005/AC:2009 Autodesk Robot Structural Analysis Professional 2014 Design of fixed beam-to-column connection EN 1993-1-8:2005/AC:2009 Ratio 0,44 GENERAL Connection no.: 24 Connection name: Ligação 2 Structure node:

More information

SKILLS Project. October 2013

SKILLS Project. October 2013 SKILLS Project October 2013 MOMENT CONNECTIONS PART 1 LEARNING OUTCOMES Design process for moment-resisting bolted connections Joint moment resistance Joint stiffness Details design (welds, bolts, stiffeners,

More information

C. C. Fu, Ph.D., P.E.

C. C. Fu, Ph.D., P.E. ENCE710 C. C. Fu, Ph.D., P.E. Shear Coectors Desig by AASHTO RFD (RFD Art. 6.10.10) I the egative flexure regios, shear coectors shall be rovided where the logitudial reiforcemet is cosidered to be a art

More information

Job No. Sheet 1 of 6 Rev B. Made by IR Date Oct Checked by FH/NB Date Oct Revised by MEB Date April 2006

Job No. Sheet 1 of 6 Rev B. Made by IR Date Oct Checked by FH/NB Date Oct Revised by MEB Date April 2006 Job No. Sheet 1 of 6 Rev B, Route de Limours Tel : (0)1 0 85 5 00 Fax : (0)1 0 5 75 8 Revised by MEB Date April 006 DESIGN EXAMPLE 6 BOLTED JOINT A 0 0 angle loaded in tension is to be connected to a gusset

More information

BASE PLATE CONNECTIONS

BASE PLATE CONNECTIONS SKILLS Project BASE PLATE CONNECTIONS LEARNING OUTCOMES Design process for pinned and fixed column base joints Base-plate resistance Anchor bolt resistance Concrete resistance Weld resistance Application

More information

Advanced Training Steel Connections

Advanced Training Steel Connections Advanced Training Steel Connections All information in this document is subject to modification without prior notice. No part of this manual may be reproduced, stored in a database or retrieval system

More information

SIMPLIFIED FORMULAS FOR ASSESSMENT OF STEEL JOINT FLEXIBILITY CHARACTERISTICS

SIMPLIFIED FORMULAS FOR ASSESSMENT OF STEEL JOINT FLEXIBILITY CHARACTERISTICS SIMPLIFIED FORMULAS FOR ASSESSMENT OF STEEL JOINT FLEXIBILITY CHARACTERISTICS Aleksander Kozłowski; Lucjan Ślęczka Rzeszów University of Technology, Poland kozlowsk@prz.edu.pl, sleczka@prz.edu.pl ABSTRACT

More information

TAMPERE UNIVERSITY OF TECHNOLOGY ELENA RUEDA ROMERO FINITE ELEMENT SIMULATION OF A BOLTED STEEL JOINT IN FIRE USING ABAQUS PROGRAM

TAMPERE UNIVERSITY OF TECHNOLOGY ELENA RUEDA ROMERO FINITE ELEMENT SIMULATION OF A BOLTED STEEL JOINT IN FIRE USING ABAQUS PROGRAM TAMPERE UNIVERSITY OF TECHNOLOGY ELENA RUEDA ROMERO FINITE ELEMENT SIMULATION OF A BOLTED STEEL JOINT IN FIRE USING ABAQUS PROGRAM Master of Science Thesis Examiners: Professor Markku Heinisuo and Mr.

More information

Joint resistance M j,rd Elastic limit 2/3 M j,rd

Joint resistance M j,rd Elastic limit 2/3 M j,rd 6 OENT CONNECTIONS 6.1 Introduction The moment connections are transferring, except of shear and normal forces, bending moment (full or partial compare to connected element) to supports. Stiffness of connection

More information

The program calculates the required thickness of doubler plates using the following algorithms. The shear force in the panel zone is given by: V p =

The program calculates the required thickness of doubler plates using the following algorithms. The shear force in the panel zone is given by: V p = COMPUTERS AND STRUCTURES, INC., BERKELEY, CALIFORNIA DECEMBER 2001 STEEL FRAME DESIGN AISC-ASD89 Tehial Note Oe aspet of the esig of a steel framig system is a evaluatio of the shear fores that exist i

More information

SHAFTS: STATICALLY INDETERMINATE SHAFTS

SHAFTS: STATICALLY INDETERMINATE SHAFTS SHAFTS: STATICALLY INDETERMINATE SHAFTS Up to this poit, the resses i a shaft has bee limited to shearig resses. This due to the fact that the selectio of the elemet uder udy was orieted i such a way that

More information

CE 562 Structural Design I Midterm No. 1 Closed Book Portion (30 / 100 pts)

CE 562 Structural Design I Midterm No. 1 Closed Book Portion (30 / 100 pts) CE 56 Structural Desig I Name: Midterm No. 1 Closed Book Portio (30 / 100 pts) 1. [ pts / 30] A very sleder colum with perfectly ped eds is subjected to a ever-creasg compressive axial force. The colum

More information

Joints in steel construction: Moment-resisting joints to eurocode 3

Joints in steel construction: Moment-resisting joints to eurocode 3 Joints in steel construction: Moment-resisting joints to eurocode 3 SCI (The Steel Construction Institute) is the leading, independent provider of technical expertise and disseminator of best practice

More information

SHAFTS: STATICALLY INDETERMINATE SHAFTS

SHAFTS: STATICALLY INDETERMINATE SHAFTS LECTURE SHAFTS: STATICALLY INDETERMINATE SHAFTS Third Editio A.. Clark School of Egieerig Departmet of Civil ad Eviromet Egieerig 7 Chapter 3.6 by Dr. Ibrahim A. Assakkaf SPRING 2003 ENES 220 Mechaics

More information

Case Study in Steel adapted from Structural Design Guide, Hoffman, Gouwens, Gustafson & Rice., 2 nd ed.

Case Study in Steel adapted from Structural Design Guide, Hoffman, Gouwens, Gustafson & Rice., 2 nd ed. Case Std i Steel adapted from Strctral Desig Gide, Hoffma, Gowes, Gstafso & Rice., d ed. Bildig descriptio The bildig is a oe-stor steel strctre, tpical of a office bildig. The figre shows that it has

More information

Steel Design. Notation:

Steel Design. Notation: Steel Desig Notatio: a A A b A e A g A gv A A t A v A w = ame for width dimesio = ame for area = area of a bolt = effective et area foud from the product of the et area A by the shear lag factor U = gross

More information

Steel Design. Notation:

Steel Design. Notation: Steel Desig Notatio: a A A b A e A g A gv A A t A v A w = ame for width dimesio = ame for area = area of a bolt = effective et area foud from the product of the et area A by the shear lag factor U = gross

More information

APOLLO SCAFFOLDING SERVICES LTD SPIGOT CONNECTION TO EUROCODES DESIGN CHECK CALCULATIONS

APOLLO SCAFFOLDING SERVICES LTD SPIGOT CONNECTION TO EUROCODES DESIGN CHECK CALCULATIONS Alan White Design APOLLO SCAFFOLDING SERVICES LTD SPIGOT CONNECTION TO EUROCODES DESIGN CHECK CALCULATIONS Alan N White B.Sc., M.Eng., C.Eng., M.I.C.E., M.I.H.T. JUL 2013 Somerset House 11 Somerset Place

More information

Structural Steelwork Eurocodes Development of A Trans-national Approach

Structural Steelwork Eurocodes Development of A Trans-national Approach Structural Steelwork Eurocodes Development of A Trans-national Approach Course: Eurocode Module 7 : Worked Examples Lecture 0 : Simple braced frame Contents: 1. Simple Braced Frame 1.1 Characteristic Loads

More information

A CONNECTION ELEMENT FOR MODELLING END-PLATE CONNECTIONS IN FIRE

A CONNECTION ELEMENT FOR MODELLING END-PLATE CONNECTIONS IN FIRE A CONNECTION ELEMENT OR MODELLING END-PLATE CONNECTIONS IN IRE Dr Zhaohui Huang Department of Civil & Structural Engineering, University of Sheffield 22 September 29 1. INTRODUCTION Three approaches for

More information

Application nr. 7 (Connections) Strength of bolted connections to EN (Eurocode 3, Part 1.8)

Application nr. 7 (Connections) Strength of bolted connections to EN (Eurocode 3, Part 1.8) Application nr. 7 (Connections) Strength of bolted connections to EN 1993-1-8 (Eurocode 3, Part 1.8) PART 1: Bolted shear connection (Category A bearing type, to EN1993-1-8) Structural element Tension

More information

Applying Performance Based Plastic Design Method to Steel Moment Resisting Frame in Accordance with the Indian Standard Code

Applying Performance Based Plastic Design Method to Steel Moment Resisting Frame in Accordance with the Indian Standard Code Iteratioal Joural of Egieerig ad Techology Volume 2 No. 3, March, 2012 Applyig Performace Based Plastic Desig Method to Steel Momet Resistig Frame i Accordace with the Idia Stadard Code Sejal P. Dalal

More information

Case Study in Steel adapted from Structural Design Guide, Hoffman, Gouwens, Gustafson & Rice., 2 nd ed.

Case Study in Steel adapted from Structural Design Guide, Hoffman, Gouwens, Gustafson & Rice., 2 nd ed. ARCH 631 Note Set F014ab Case Std i Steel adapted from Strctral Desig Gide, Hoffma, Gowes, Gstafso & Rice., d ed. Bildig descriptio The bildig is a oe-stor steel strctre, tpical of a office bildig. The

More information

Example 4: Design of a Rigid Column Bracket (Bolted)

Example 4: Design of a Rigid Column Bracket (Bolted) Worked Example 4: Design of a Rigid Column Bracket (Bolted) Example 4: Design of a Rigid Column Bracket (Bolted) Page : 1 Example 4: Design of a Rigid Column Bracket (Bolted) Determine the size of the

More information

Structural Steelwork Eurocodes Development of A Trans-national Approach

Structural Steelwork Eurocodes Development of A Trans-national Approach Structural Steelwork Eurocodes Development of A Trans-national Approach Course: Eurocode Module 7 : Worked Examples Lecture 22 : Design of an unbraced sway frame with rigid joints Summary: NOTE This example

More information

Failure Theories Des Mach Elem Mech. Eng. Department Chulalongkorn University

Failure Theories Des Mach Elem Mech. Eng. Department Chulalongkorn University Failure Theories Review stress trasformatio Failure theories for ductile materials Maimum-Shear-Stress Theor Distortio-Eerg Theor Coulomb-Mohr Theor Failure theories for brittle materials Maimum-Normal-Stress

More information

CE 562 Structural Design I Midterm No. 1 Closed Book Portion (25 / 100 pts)

CE 562 Structural Design I Midterm No. 1 Closed Book Portion (25 / 100 pts) CE 56 Structural Desig I Name: Midterm No. 1 Closed Book Portio (5 / 100 pts) 1. [6 pts / 5 pts] Two differet tesio members are show below - oe is a pair of chaels coected back-to-back ad the other is

More information

Module 10. Compression Members. Version 2 CE IIT, Kharagpur

Module 10. Compression Members. Version 2 CE IIT, Kharagpur Module 10 Compressio Members Versio 2 CE IIT, Kharagpur Lesso 26 Short Compressio Members uder Axial Load with Biaxial Bedig Versio 2 CE IIT, Kharagpur Istructioal Objectives: At the ed of this lesso,

More information

Hoggatt and King [lo] defined a complete sequence of natural numbers

Hoggatt and King [lo] defined a complete sequence of natural numbers REPRESENTATIONS OF N AS A SUM OF DISTINCT ELEMENTS FROM SPECIAL SEQUENCES DAVID A. KLARNER, Uiversity of Alberta, Edmoto, Caada 1. INTRODUCTION Let a, I deote a sequece of atural umbers which satisfies

More information

Structural Steelwork Eurocodes Development of A Trans-national Approach

Structural Steelwork Eurocodes Development of A Trans-national Approach Structural Steelwork Eurocodes Development of A Trans-national Approach Course: Eurocode 3 Module 7 : Worked Examples Lecture 20 : Simple braced frame Contents: 1. Simple Braced Frame 1.1 Characteristic

More information

3.5 Analysis of Members under Flexure (Part IV)

3.5 Analysis of Members under Flexure (Part IV) 3.5 Analysis o Members under Flexure (Part IV) This section covers the ollowing topics. Analysis o a Flanged Section 3.5.1 Analysis o a Flanged Section Introduction A beam can have langes or lexural eiciency.

More information

C:\Users\joc\Documents\IT\Robot EC3 6_2_1 (5)\Eurocode _2_1(5) Concentrated Load - Rev 1_0.mcdx. γ M γ M γ M2 1.

C:\Users\joc\Documents\IT\Robot EC3 6_2_1 (5)\Eurocode _2_1(5) Concentrated Load - Rev 1_0.mcdx. γ M γ M γ M2 1. C:\Users\joc\Documents\IT\Robot EC3 6 1 (5)\Eurocode 1993-1-1 6 1(5) Concentrated Load - Rev 1_0.mcdx Page 1 of 01/03/016 Section sec HEB500 with steel grade gr S355 I x Iy_sec (sec) cm 4 = 10700 cm 4

More information

ARCH 631 Note Set 21.1 S2017abn. Steel Design

ARCH 631 Note Set 21.1 S2017abn. Steel Design Steel Desig Notatio: a = ame or width dimesio A = ame or area Ag = gross area, equal to the total area igorig a holes Areq d-adj = area required at allowable stress whe shear is adjusted to iclude Aw sel

More information

A Simplified Method for the Design of Steel Beam-to-column Connections

A Simplified Method for the Design of Steel Beam-to-column Connections P P Periodica Polytechnica Architecture A Simplified Method for the Design of Steel Beam-to-column Connections 48() pp. 79-86 017 https://doi.org/10.3311/ppar.11089 Creative Commons Attribution b Imola

More information

AISC Live Webinars. Thank you for joining our live webinar today. We will begin shortly. Please standby.

AISC Live Webinars. Thank you for joining our live webinar today. We will begin shortly. Please standby. April 9, 0 Coectios with Flat Bar Gussets Part AISC Live Weiars Thak you for joiig our live weiar today. We will egi shortly. Please stady. Thak you. Need Help? Call ReadyTalk Support: 800.83.966 There

More information

Lecture 7: Properties of Random Samples

Lecture 7: Properties of Random Samples Lecture 7: Properties of Radom Samples 1 Cotiued From Last Class Theorem 1.1. Let X 1, X,...X be a radom sample from a populatio with mea µ ad variace σ

More information

The multiplicative structure of finite field and a construction of LRC

The multiplicative structure of finite field and a construction of LRC IERG6120 Codig for Distributed Storage Systems Lecture 8-06/10/2016 The multiplicative structure of fiite field ad a costructio of LRC Lecturer: Keeth Shum Scribe: Zhouyi Hu Notatios: We use the otatio

More information

A statistical method to determine sample size to estimate characteristic value of soil parameters

A statistical method to determine sample size to estimate characteristic value of soil parameters A statistical method to determie sample size to estimate characteristic value of soil parameters Y. Hojo, B. Setiawa 2 ad M. Suzuki 3 Abstract Sample size is a importat factor to be cosidered i determiig

More information

Matrix Algebra 2.2 THE INVERSE OF A MATRIX Pearson Education, Inc.

Matrix Algebra 2.2 THE INVERSE OF A MATRIX Pearson Education, Inc. 2 Matrix Algebra 2.2 THE INVERSE OF A MATRIX MATRIX OPERATIONS A matrix A is said to be ivertible if there is a matrix C such that CA = I ad AC = I where, the idetity matrix. I = I I this case, C is a

More information

MATH/STAT 352: Lecture 15

MATH/STAT 352: Lecture 15 MATH/STAT 352: Lecture 15 Sectios 5.2 ad 5.3. Large sample CI for a proportio ad small sample CI for a mea. 1 5.2: Cofidece Iterval for a Proportio Estimatig proportio of successes i a biomial experimet

More information

Principle Of Superposition

Principle Of Superposition ecture 5: PREIMINRY CONCEP O RUCUR NYI Priciple Of uperpositio Mathematically, the priciple of superpositio is stated as ( a ) G( a ) G( ) G a a or for a liear structural system, the respose at a give

More information

STEEL BUILDINGS IN EUROPE. Multi-Storey Steel Buildings Part 10: Technical Software Specification for Composite Beams

STEEL BUILDINGS IN EUROPE. Multi-Storey Steel Buildings Part 10: Technical Software Specification for Composite Beams STEEL BUILDINGS IN EUROPE Multi-Storey Steel Buildings Part 10: Technical Software Specification for Composite Beams Multi-Storey Steel Buildings Part 10: Technical Software Specification for Composite

More information

Problem Set 2 Solutions

Problem Set 2 Solutions CS271 Radomess & Computatio, Sprig 2018 Problem Set 2 Solutios Poit totals are i the margi; the maximum total umber of poits was 52. 1. Probabilistic method for domiatig sets 6pts Pick a radom subset S

More information

This Technical Note describes how the program calculates the moment capacity of a noncomposite steel beam, including a cover plate, if applicable.

This Technical Note describes how the program calculates the moment capacity of a noncomposite steel beam, including a cover plate, if applicable. COPUTERS AND STRUCTURES, INC., BERKEEY, CAIORNIA DECEBER 001 COPOSITE BEA DESIGN AISC-RD93 Techical te This Techical te descibes how the ogam calculates the momet caacit of a ocomosite steel beam, icludig

More information

The target reliability and design working life

The target reliability and design working life Safety ad Security Egieerig IV 161 The target reliability ad desig workig life M. Holický Kloker Istitute, CTU i Prague, Czech Republic Abstract Desig workig life ad target reliability levels recommeded

More information

SOLID MECHANICS TUTORIAL BALANCING OF RECIPROCATING MACHINERY

SOLID MECHANICS TUTORIAL BALANCING OF RECIPROCATING MACHINERY SOLID MECHANICS TUTORIAL BALANCING OF RECIPROCATING MACHINERY This work covers elemets of the syllabus for the Egieerig Coucil Exam D5 Dyamics of Mechaical Systems. O completio of this tutorial you should

More information

Linear regression. Daniel Hsu (COMS 4771) (y i x T i β)2 2πσ. 2 2σ 2. 1 n. (x T i β y i ) 2. 1 ˆβ arg min. β R n d

Linear regression. Daniel Hsu (COMS 4771) (y i x T i β)2 2πσ. 2 2σ 2. 1 n. (x T i β y i ) 2. 1 ˆβ arg min. β R n d Liear regressio Daiel Hsu (COMS 477) Maximum likelihood estimatio Oe of the simplest liear regressio models is the followig: (X, Y ),..., (X, Y ), (X, Y ) are iid radom pairs takig values i R d R, ad Y

More information

refracted and the wavelength of the light shortens. According to the equation! = w"y L

refracted and the wavelength of the light shortens. According to the equation! = wy L Sectio 10.2: Sigle-Slit Diffractio Tutorial 1 Practice, page 516 1. Whe light travels from air to a medium that is deser tha air, such as ater, the light is refracted ad the avelegth of the light shortes.

More information

Electrical Resistance

Electrical Resistance Electrical Resistace I + V _ W Material with resistivity ρ t L Resistace R V I = L ρ Wt (Uit: ohms) where ρ is the electrical resistivity Addig parts/billio to parts/thousad of dopats to pure Si ca chage

More information

Drive Technology \ Drive Automation \ System Integration \ Services. Data Sheet. Functional Safety Safety Characteristics for BE..

Drive Technology \ Drive Automation \ System Integration \ Services. Data Sheet. Functional Safety Safety Characteristics for BE.. Drive Techology \ Drive Automatio \ System Itegratio \ Services Data Sheet Fuctioal Safety Safety Characteristics for BE.. Brake Editio 12/2010 17062810 / EN SEW-EURODRIVE Drivig the world Data Sheet Safety

More information

Evaluation of Anchor Bolt Clearance Discrepancies

Evaluation of Anchor Bolt Clearance Discrepancies Evaluatio of Achor Bolt Clearace Discrepacies Cotract # DTRT1GUTC1 with USDOT Office of the Assistat Secretary for Research ad Techology (OST-R) Fial Report July 016 Pricipal Ivestigator: Ia E. Hosch,

More information

Application nr. 3 (Ultimate Limit State) Resistance of member cross-section

Application nr. 3 (Ultimate Limit State) Resistance of member cross-section Application nr. 3 (Ultimate Limit State) Resistance of member cross-section 1)Resistance of member crosssection in tension Examples of members in tension: - Diagonal of a truss-girder - Bottom chord of

More information

Scholars' Mine. Missouri University of Science and Technology. Ling-En Hsiao. Wei-wen Yu Missouri University of Science and Technology,

Scholars' Mine. Missouri University of Science and Technology. Ling-En Hsiao. Wei-wen Yu Missouri University of Science and Technology, Missouri Uiversity of Sciece ad Techology Scholars' Mie Ceter for Cold-Formed Steel Structures Library Wei-We Yu Ceter for Cold-Formed Steel Structures 8-1-1989 Load ad resistace factor desig of cold-formed

More information

1 1 2 = show that: over variables x and y. [2 marks] Write down necessary conditions involving first and second-order partial derivatives for ( x0, y

1 1 2 = show that: over variables x and y. [2 marks] Write down necessary conditions involving first and second-order partial derivatives for ( x0, y Questio (a) A square matrix A= A is called positive defiite if the quadratic form waw > 0 for every o-zero vector w [Note: Here (.) deotes the traspose of a matrix or a vector]. Let 0 A = 0 = show that:

More information

Wind Energy Explained, 2 nd Edition Errata

Wind Energy Explained, 2 nd Edition Errata Wid Eergy Explaied, d Editio Errata This summarizes the ko errata i Wid Eergy Explaied, d Editio. The errata ere origially compiled o July 6, 0. Where possible, the chage or locatio of the chage is oted

More information

EGN 3353C Fluid Mechanics

EGN 3353C Fluid Mechanics Chapter 7: DIMENSIONAL ANALYSIS AND MODELING Lecture 3 dimesio measure of a physical quatity ithout umerical values (e.g., legth) uit assigs a umber to that dimesio (e.g., meter) 7 fudametal dimesios from

More information

A GERMAN CALIBRATION GUIDELINE FOR TORQUE WRENCH CALIBRATION DEVICES REVISED

A GERMAN CALIBRATION GUIDELINE FOR TORQUE WRENCH CALIBRATION DEVICES REVISED XXI IEO World Cogress easuremet i Research ad Idustry August 30 September 4, 05, Prague, Czech Republic A GERAN CAIBRATION GUIDEINE FOR TORQUE WRENCH CAIBRATION DEVICES REVISED Dirk Röske Physikalisch-Techische

More information

STEEL BUILDINGS IN EUROPE. Multi-Storey Steel Buildings Part 8: Description of member resistance calculator

STEEL BUILDINGS IN EUROPE. Multi-Storey Steel Buildings Part 8: Description of member resistance calculator STEEL BUILDINGS IN EUROPE Multi-Store Steel Buildings Part 8: Description of member resistance calculator Multi-Store Steel Buildings Part : Description of member resistance calculator 8 - ii FOREWORD

More information

Drive Technology \ Drive Automation \ System Integration \ Services. Data Sheet. Functional Safety Safety Characteristics for Brake BE..

Drive Technology \ Drive Automation \ System Integration \ Services. Data Sheet. Functional Safety Safety Characteristics for Brake BE.. Drive Techology \ Drive Automatio \ System Itegratio \ Services Data Sheet Fuctioal Safety Safety Characteristics for Brake BE..(FS) Editio 08/2012 19491212 / EN SEW-EURODRIVE Drivig the world Data Sheet

More information

BACKMIXING IN SCREW EXTRUDERS

BACKMIXING IN SCREW EXTRUDERS BACKMIXING IN SCREW EXTRUDERS Chris Rauwedaal, Rauwedaal Extrusio Egieerig, Ic. Paul Grama, The Madiso Group Abstract Mixig is a critical fuctio i most extrusio operatios. Oe of the most difficult mixig

More information

Slide Set 13 Linear Model with Endogenous Regressors and the GMM estimator

Slide Set 13 Linear Model with Endogenous Regressors and the GMM estimator Slide Set 13 Liear Model with Edogeous Regressors ad the GMM estimator Pietro Coretto pcoretto@uisa.it Ecoometrics Master i Ecoomics ad Fiace (MEF) Uiversità degli Studi di Napoli Federico II Versio: Friday

More information

Problem 4: Evaluate ( k ) by negating (actually un-negating) its upper index. Binomial coefficient

Problem 4: Evaluate ( k ) by negating (actually un-negating) its upper index. Binomial coefficient Problem 4: Evaluate by egatig actually u-egatig its upper idex We ow that Biomial coefficiet r { where r is a real umber, is a iteger The above defiitio ca be recast i terms of factorials i the commo case

More information

Equivalent T-stubs (Component Method) as per DIN EN

Equivalent T-stubs (Component Method) as per DIN EN Equivalent T-stubs (Component Method) as per DIN EN 1993-1-8 Nemetschek Frilo GmbH www.frilo.de info@frilo.de As of 23/11/2012 Contents Introduction 3 T-stub model 3 Examples for the T-stub model 9 Introduction

More information

(b) What is the probability that a particle reaches the upper boundary n before the lower boundary m?

(b) What is the probability that a particle reaches the upper boundary n before the lower boundary m? MATH 529 The Boudary Problem The drukard s walk (or boudary problem) is oe of the most famous problems i the theory of radom walks. Oe versio of the problem is described as follows: Suppose a particle

More information

CHAPTER 4. Stresses in Beams

CHAPTER 4. Stresses in Beams CHAPTER 4 Stresses in Beams Problem 1. A rolled steel joint (RSJ) of -section has top and bottom flanges 150 mm 5 mm and web of size 00 mm 1 mm. t is used as a simply supported beam over a span of 4 m

More information

7.3 Design of members subjected to combined forces

7.3 Design of members subjected to combined forces 7.3 Design of members subjected to combined forces 7.3.1 General In the previous chapters of Draft IS: 800 LSM version, we have stipulated the codal provisions for determining the stress distribution in

More information

MATHEMATICAL MODELLING OF ARCH FORMATION IN GRANULAR MATERIALS

MATHEMATICAL MODELLING OF ARCH FORMATION IN GRANULAR MATERIALS 6 th INTERNATIONAL MULTIDISCIPLINARY CONFERENCE MATHEMATICAL MODELLING OF ARCH FORMATION IN GRANULAR MATERIALS Istva eppler SZIE Faculty of Mechaics, H-2103 Gödöllő Páter. 1., Hugary Abstract: The mathematical

More information

Eurocode 3 for Dummies The Opportunities and Traps

Eurocode 3 for Dummies The Opportunities and Traps Eurocode 3 for Dummies The Opportunities and Traps a brief guide on element design to EC3 Tim McCarthy Email tim.mccarthy@umist.ac.uk Slides available on the web http://www2.umist.ac.uk/construction/staff/

More information

Math 142, Final Exam. 5/2/11.

Math 142, Final Exam. 5/2/11. Math 4, Fial Exam 5// No otes, calculator, or text There are poits total Partial credit may be give Write your full ame i the upper right corer of page Number the pages i the upper right corer Do problem

More information

Section 7. Gaussian Reduction

Section 7. Gaussian Reduction 7- Sectio 7 Gaussia eductio Paraxial aytrace Equatios eractio occurs at a iterace betwee two optical spaces. The traser distace t' allows the ray height y' to be determied at ay plae withi a optical space

More information

Efficient GMM LECTURE 12 GMM II

Efficient GMM LECTURE 12 GMM II DECEMBER 1 010 LECTURE 1 II Efficiet The estimator depeds o the choice of the weight matrix A. The efficiet estimator is the oe that has the smallest asymptotic variace amog all estimators defied by differet

More information

Analysis of planar welds

Analysis of planar welds Dr Andrei Lozzi Design II, MECH 3.400 Analysis of planar elds School of Aerospace, Mechanical and Mechatronic Engineering University of Sydney, NSW 2006 Australia lecture eld ne b References: Blodget,

More information

NONLOCAL THEORY OF ERINGEN

NONLOCAL THEORY OF ERINGEN NONLOCAL THEORY OF ERINGEN Accordig to Erige (197, 1983, ), the stress field at a poit x i a elastic cotiuum ot oly depeds o the strai field at the poit (hyperelastic case) but also o strais at all other

More information

( ) (( ) ) ANSWERS TO EXERCISES IN APPENDIX B. Section B.1 VECTORS AND SETS. Exercise B.1-1: Convex sets. are convex, , hence. and. (a) Let.

( ) (( ) ) ANSWERS TO EXERCISES IN APPENDIX B. Section B.1 VECTORS AND SETS. Exercise B.1-1: Convex sets. are convex, , hence. and. (a) Let. Joh Riley 8 Jue 03 ANSWERS TO EXERCISES IN APPENDIX B Sectio B VECTORS AND SETS Exercise B-: Covex sets (a) Let 0 x, x X, X, hece 0 x, x X ad 0 x, x X Sice X ad X are covex, x X ad x X The x X X, which

More information

Made by PTY/AAT Date Jan 2006

Made by PTY/AAT Date Jan 2006 Job No. VALCOSS Sheet of 9 Rev A P.O. Box 000, FI-0044 VTT Tel. +358 0 7 Fax +358 0 7 700 Design Example 3 Stainless steel lattice girder made Made by PTY/AAT Date Jan 006 RFCS Checked by MAP Date Feb

More information

Random Matrices with Blocks of Intermediate Scale Strongly Correlated Band Matrices

Random Matrices with Blocks of Intermediate Scale Strongly Correlated Band Matrices Radom Matrices with Blocks of Itermediate Scale Strogly Correlated Bad Matrices Jiayi Tog Advisor: Dr. Todd Kemp May 30, 07 Departmet of Mathematics Uiversity of Califoria, Sa Diego Cotets Itroductio Notatio

More information

Section 19. Dispersing Prisms

Section 19. Dispersing Prisms Sectio 9 Dispersig Prisms 9- Dispersig Prism 9- The et ray deviatio is the sum of the deviatios at the two surfaces. The ray deviatio as a fuctio of the iput agle : si si si cossi Prism Deviatio - Derivatio

More information

Section 19. Dispersing Prisms

Section 19. Dispersing Prisms 19-1 Sectio 19 Dispersig Prisms Dispersig Prism 19-2 The et ray deviatio is the sum of the deviatios at the two surfaces. The ray deviatio as a fuctio of the iput agle : 1 2 2 si si si cossi Prism Deviatio

More information

Nonlinear inelastic analysis of steel-concrete composite beam-columns using the stability functions

Nonlinear inelastic analysis of steel-concrete composite beam-columns using the stability functions Structural Egieerig ad Mechaics, Vol. 30, No. 6 (2008) 763-785 763 Noliear ielastic aalysis of steel-cocrete composite beam-colums usig the stability fuctios Jug-Woog Park ad Seug-Eock Kim Departmet of

More information

Reliability of steel flexural members according to EC in serviceability limit state

Reliability of steel flexural members according to EC in serviceability limit state NSCC2009 Reliability of steel flexural members accordig to EC i serviceability limit state D. Hofi & A. Mårtesso Divisio of Structural Egieerig, Lud Uiversity, Lud, Swede ABSTRACT: To achieve a relatively

More information

PHYS 321 Solutions to Practice Final (December 2002).

PHYS 321 Solutions to Practice Final (December 2002). PHYS Solutios to Practice Fial (December ) Two masses, m ad m are coected by a sprig of costat k, leadig to the potetial V( r) = k( r ) r a) What is the Lagragia for this system? (Assume -dimesioal motio)

More information

Respon Spektrum Gempa

Respon Spektrum Gempa Mata Kuliah : Diamika Struktur & Pegatar Rekayasa Kegempaa Kode : TSP 302 SKS : 3 SKS Respo Spektrum Gempa Pertemua 10 TIU : Mahasiswa dapat mejelaska feomea-feomea diamik secara fisik. TIK : Mahasiswa

More information

Entropy and Ergodic Theory Lecture 5: Joint typicality and conditional AEP

Entropy and Ergodic Theory Lecture 5: Joint typicality and conditional AEP Etropy ad Ergodic Theory Lecture 5: Joit typicality ad coditioal AEP 1 Notatio: from RVs back to distributios Let (Ω, F, P) be a probability space, ad let X ad Y be A- ad B-valued discrete RVs, respectively.

More information

The standard deviation of the mean

The standard deviation of the mean Physics 6C Fall 20 The stadard deviatio of the mea These otes provide some clarificatio o the distictio betwee the stadard deviatio ad the stadard deviatio of the mea.. The sample mea ad variace Cosider

More information

5. A formulae page and two tables are provided at the end of Part A of the examination PART A

5. A formulae page and two tables are provided at the end of Part A of the examination PART A Istructios: 1. You have bee provided with: (a) this questio paper (Part A ad Part B) (b) a multiple choice aswer sheet (for Part A) (c) Log Aswer Sheet(s) (for Part B) (d) a booklet of tables. (a) I PART

More information

ON THE DESIGN OF A STEEL END-PLATE BEAM-TO-COLUMN BOLTED JOINT ACCORDING TO PN-EN

ON THE DESIGN OF A STEEL END-PLATE BEAM-TO-COLUMN BOLTED JOINT ACCORDING TO PN-EN CZASOPISMO INŻYNIERII LĄDOWEJ, ŚRODOWISKA I ARCHITEKTURY JOURNAL O CIVIL ENGINEERING, ENVIRONMENT AND ARCHITECTURE JCEEA, t. XXXV, z. 65 (2/18), kwiecień-czerwiec 2018, s. 187-196, DOI:10.7862/rb.2018.35

More information

Large holes in quasi-random graphs

Large holes in quasi-random graphs Large holes i quasi-radom graphs Joaa Polcy Departmet of Discrete Mathematics Adam Mickiewicz Uiversity Pozań, Polad joaska@amuedupl Submitted: Nov 23, 2006; Accepted: Apr 10, 2008; Published: Apr 18,

More information

4. Partial Sums and the Central Limit Theorem

4. Partial Sums and the Central Limit Theorem 1 of 10 7/16/2009 6:05 AM Virtual Laboratories > 6. Radom Samples > 1 2 3 4 5 6 7 4. Partial Sums ad the Cetral Limit Theorem The cetral limit theorem ad the law of large umbers are the two fudametal theorems

More information

Project data Project name Project number Author Description Date 26/04/2017 Design code AISC dome anchor. Material.

Project data Project name Project number Author Description Date 26/04/2017 Design code AISC dome anchor. Material. Project data Project name Project number Author Description Date 26/04/2017 Design code AISC 360-10 Material Steel A36, A529, Gr. 50 Concrete 4000 psi dome anchor Connection Name Description Analysis Design

More information

Problems from 9th edition of Probability and Statistical Inference by Hogg, Tanis and Zimmerman:

Problems from 9th edition of Probability and Statistical Inference by Hogg, Tanis and Zimmerman: Math 224 Fall 2017 Homework 4 Drew Armstrog Problems from 9th editio of Probability ad Statistical Iferece by Hogg, Tais ad Zimmerma: Sectio 2.3, Exercises 16(a,d),18. Sectio 2.4, Exercises 13, 14. Sectio

More information

Seunghee Ye Ma 8: Week 5 Oct 28

Seunghee Ye Ma 8: Week 5 Oct 28 Week 5 Summary I Sectio, we go over the Mea Value Theorem ad its applicatios. I Sectio 2, we will recap what we have covered so far this term. Topics Page Mea Value Theorem. Applicatios of the Mea Value

More information

PROBLEM SET I (Suggested Solutions)

PROBLEM SET I (Suggested Solutions) Eco3-Fall3 PROBLE SET I (Suggested Solutios). a) Cosider the followig: x x = x The quadratic form = T x x is the required oe i matrix form. Similarly, for the followig parts: x 5 b) x = = x c) x x x x

More information

62. Power series Definition 16. (Power series) Given a sequence {c n }, the series. c n x n = c 0 + c 1 x + c 2 x 2 + c 3 x 3 +

62. Power series Definition 16. (Power series) Given a sequence {c n }, the series. c n x n = c 0 + c 1 x + c 2 x 2 + c 3 x 3 + 62. Power series Defiitio 16. (Power series) Give a sequece {c }, the series c x = c 0 + c 1 x + c 2 x 2 + c 3 x 3 + is called a power series i the variable x. The umbers c are called the coefficiets of

More information

STEEL MEMBER DESIGN (EN :2005)

STEEL MEMBER DESIGN (EN :2005) GEODOMISI Ltd. - Dr. Costas Sachpazis Consulting Company for App'd by STEEL MEMBER DESIGN (EN1993-1-1:2005) In accordance with EN1993-1-1:2005 incorporating Corrigenda February 2006 and April details type;

More information

The plastic moment capacity of a composite cross-section is calculated in the program on the following basis (BS 4.4.2):

The plastic moment capacity of a composite cross-section is calculated in the program on the following basis (BS 4.4.2): COMPUTERS AND STRUCTURES, INC., BERKELEY, CALIFORNIA SEPTEMBER 2002 COMPOSITE BEAM DESIGN BS 5950-90 Technical Note Composite Plastic Moment Capacity for Positive Bending This Technical Note describes

More information

Appendix to Quicksort Asymptotics

Appendix to Quicksort Asymptotics Appedix to Quicksort Asymptotics James Alle Fill Departmet of Mathematical Scieces The Johs Hopkis Uiversity jimfill@jhu.edu ad http://www.mts.jhu.edu/~fill/ ad Svate Jaso Departmet of Mathematics Uppsala

More information

Matrix Algebra 2.3 CHARACTERIZATIONS OF INVERTIBLE MATRICES Pearson Education, Inc.

Matrix Algebra 2.3 CHARACTERIZATIONS OF INVERTIBLE MATRICES Pearson Education, Inc. 2 Matrix Algebra 2.3 CHARACTERIZATIONS OF INVERTIBLE MATRICES 2012 Pearso Educatio, Ic. Theorem 8: Let A be a square matrix. The the followig statemets are equivalet. That is, for a give A, the statemets

More information

REVISION SHEET FP1 (MEI) ALGEBRA. Identities In mathematics, an identity is a statement which is true for all values of the variables it contains.

REVISION SHEET FP1 (MEI) ALGEBRA. Identities In mathematics, an identity is a statement which is true for all values of the variables it contains. The mai ideas are: Idetities REVISION SHEET FP (MEI) ALGEBRA Before the exam you should kow: If a expressio is a idetity the it is true for all values of the variable it cotais The relatioships betwee

More information